mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid-jet precision-dispensing device comprising: a layer ; one or more first holes within the layer , the first holes adapted to pass fluid therethrough during usage of the device to precisely dispense the fluid at accurately specified locations; and, one or more second holes within the layer , the second holes adapted to not pass the fluid therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations, the second holes are configured to have a size and/or shape to adapt to one or more of: pass gaseous bubbles therethrough during performance of a priming operation of the device ; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device ; characterized in that wherein the size and/or shape of the second holes are configured to ensure that a critical pressure at each second hole is greater in absolute value than an absolut value of backpressure at each second holes to: prevent gas from being introduced within the device through the second hole ; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations. a layer ; one or more first holes within the layer , the first holes adapted to pass fluid therethrough during usage of the device to precisely dispense the fluid at accurately specified locations; and, one or more second holes within the layer , the second holes adapted to not pass the fluid therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations, the second holes are configured to have a size and/or shape to adapt to one or more of: pass gaseous bubbles therethrough during performance of a priming operation of the device ; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device ; pass gaseous bubbles therethrough during performance of a priming operation of the device ; and, pass sludge and/or contaminants therethrough during performance of the priming operation of the device ; characterized in that wherein the size and/or shape of the second holes are configured to ensure that a critical pressure at each second hole is greater in absolute value than an absolut value of backpressure at each second holes to: prevent gas from being introduced within the device through the second hole ; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations. prevent gas from being introduced within the device through the second hole ; and, prevent the fluid from passing therethrough during usage of the device to precisely dispense the fluid at the accurately specified locations.
A method for acquiring auxiliary information to assist a diagnosis or treatment of prostate cancer, comprising the following steps (A), (B), and (C), step (A): a step of acquiring a concentration value of a prostate specific antigen (GalNAc-PSA) having a β-N-acetylgalactosamine residue at a non-reducing terminal of a sugar chain contained in a sample derived from a living body, step (B): a step of acquiring a volume value of the prostate of the living body, and step (C): a step of dividing the concentration value of the GalNAc-PSA by the volume value of the prostate of the living body to calculate a value (G-PSA density (G-PSAD)) of the concentration of the GalNAc-PSA per prostate volume, wherein the step (A) is a step of acquiring the concentration value of the GalNAc-PSA by an interaction between a molecule having an affinity for the β-N-acetylgalactosamine residue and the GalNAc-PSA. step (A): a step of acquiring a concentration value of a prostate specific antigen (GalNAc-PSA) having a β-N-acetylgalactosamine residue at a non-reducing terminal of a sugar chain contained in a sample derived from a living body, step (B): a step of acquiring a volume value of the prostate of the living body, and step (C): a step of dividing the concentration value of the GalNAc-PSA by the volume value of the prostate of the living body to calculate a value (G-PSA density (G-PSAD)) of the concentration of the GalNAc-PSA per prostate volume,
An authentication server comprising: response signal reception means for receiving a response signal from a client device , the response signal being a signal in which a probe signal changed by being transmitted through a body or on a surface of the body of an authentication subject, the probe signal being a signal applied to the authentication subject by the client device ; probe signal generation means for generating a same probe signal as the probe signal applied by the client device ; transfer characteristic calculation means for calculating a transfer characteristic of the authentication subject using the probe signal generated by the probe signal generation means and the response signal; and authentication means for authenticating the authentication subject by comparing a previously registered transfer characteristic and the transfer characteristic calculated by the transfer characteristic calculation means , the authentication server being characterized in that the probe signal is configured of a pattern, a frequency of which changes over time. response signal reception means for receiving a response signal from a client device , the response signal being a signal in which a probe signal changed by being transmitted through a body or on a surface of the body of an authentication subject, the probe signal being a signal applied to the authentication subject by the client device ; probe signal generation means for generating a same probe signal as the probe signal applied by the client device ; transfer characteristic calculation means for calculating a transfer characteristic of the authentication subject using the probe signal generated by the probe signal generation means and the response signal; and authentication means for authenticating the authentication subject by comparing a previously registered transfer characteristic and the transfer characteristic calculated by the transfer characteristic calculation means , the authentication server being characterized in that the probe signal is configured of a pattern, a frequency of which changes over time.
A loader configured to load one or more ferrules (52; 84A, 84B) into a surgical suturing instrument comprising a tissue bite area ; the loader comprising: a head having a protrusion configured to be inserted into and releasably held by the tissue bite area ; a tube ; a tube interface configured to releasably hold the tube ; one or more ferrule holders (62A, 62B; 154) defined by the protrusion ; one or more ferrules (52; 84A, 84B), each corresponding to and held by one of the one or more ferrule holders (62A, 62B; 154) and coupled to an end of a suture that leads from the tube ; and one or more ferrule-viewing openings (64A, 64B; 156) configured to allow the one or more ferrules (52; 84A, 84B) to be seen in the one or more ferrule holders (62A, 62B; 154). a head having a protrusion configured to be inserted into and releasably held by the tissue bite area ; a tube ; a tube interface configured to releasably hold the tube ; one or more ferrule holders (62A, 62B; 154) defined by the protrusion ; one or more ferrules (52; 84A, 84B), each corresponding to and held by one of the one or more ferrule holders (62A, 62B; 154) and coupled to an end of a suture that leads from the tube ; and one or more ferrule-viewing openings (64A, 64B; 156) configured to allow the one or more ferrules (52; 84A, 84B) to be seen in the one or more ferrule holders (62A, 62B; 154).
Lock cylinder comprising a rotatable cylinder core which has a symmetric key channel , an attachment element which has a passage connected to the key channel being arranged adjacent to and before the cylinder core in the key insertion direction , and the passage being designed such that the key channel is partially covered by the attachment element , characterized in that the key channel is suitable for receiving a reversible key, and in that the key channel is designed to be point-symmetric with the period of 180° with respect to the longitudinal axis thereof.
A method for the preparation of hydrobromic acid from an aqueous bromide salt solution waste comprising organic contaminants, said process comprising the following steps: a. a step consisting in thermal purification by incineration of the waste in order to remove organic contaminants, followed by a step consisting in concentrating the waste by trapping it in a quench consisting of a concentric circular water curtain; b. a step consisting in electrodialysis with bipolar membranes, or treatment with an ion exchange resin, of the waste obtained on completion of step a. in order to convert the bromide salts into hydrobromic acid; c. a step consisting in purification by a first distillation of the hydrobromic acid obtained on completion of step b. in order to eliminate the excess water and hydrochloric acid; d. a step consisting in purification by a second azeotropic distillation of the hydrobromic acid obtained on completion of step c. in order to reduce the content of dry residues, heavy metals and/or dissolved salts; and e. a step consisting in recovering the hydrobromic acid obtained on completion of step d. a. a step consisting in thermal purification by incineration of the waste in order to remove organic contaminants, followed by a step consisting in concentrating the waste by trapping it in a quench consisting of a concentric circular water curtain; b. a step consisting in electrodialysis with bipolar membranes, or treatment with an ion exchange resin, of the waste obtained on completion of step a. in order to convert the bromide salts into hydrobromic acid; c. a step consisting in purification by a first distillation of the hydrobromic acid obtained on completion of step b. in order to eliminate the excess water and hydrochloric acid; d. a step consisting in purification by a second azeotropic distillation of the hydrobromic acid obtained on completion of step c. in order to reduce the content of dry residues, heavy metals and/or dissolved salts; and e. a step consisting in recovering the hydrobromic acid obtained on completion of step d.
A film resistor having a piezoresistive layer , wherein the piezoresistive layer has a M 1+n AX n phase, wherein M has at least one transition metal, A has a main-group element, X has carbon and/or nitrogen, and wherein n = 1, 2 or 3.
Current sensor arrangement, comprising a primary conductor for conducting a current that is to be measured, at least two magnetic field probes for measuring magnetic fields, a magnetic core , which has a closed, three- or multi-cornered ring structure that encloses the primary conductor, wherein the magnetic field probes are arranged on the magnetic core or in recesses (6; 7; 9; 10) in the magnetic core , and a primary conductor guide for both rectangular and round primary conductors, which is arranged in a magnetic core opening that is surrounded by the magnetic core , wherein the primary conductor guide has a solid body with a round guide opening that is arranged to overlap relative to the magnetic core opening and with a rectangular guide opening that is arranged to overlap and that extends over the round guide opening.
A method of manufacturing a hydrocarbon gas reforming catalyst precursor comprising a NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4 , the method comprising the steps of: providing SrCO 3 and TiO 2 in a molar ratio of 2:1, adding NiO and mixing so as to attain a ratio of 2.2 to 13.5 parts by mol relative to 100 parts by mol of the Sr 2 TiO 4 , to be produced, adding a binder to the mixture for granulation so as to obtain a spherical granulated body having a diameter of 2 to 5 mm, and producing the NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4 by placing said granulated body in air and firing said granulated body at a temperature of 1100°C for one hour. providing SrCO 3 and TiO 2 in a molar ratio of 2:1, adding NiO and mixing so as to attain a ratio of 2.2 to 13.5 parts by mol relative to 100 parts by mol of the Sr 2 TiO 4 , to be produced, adding a binder to the mixture for granulation so as to obtain a spherical granulated body having a diameter of 2 to 5 mm, and producing the NiO-Sr 2 TiO 4 solid solution in which NiO is dissolved in Sr 2 TiO 4 by placing said granulated body in air and firing said granulated body at a temperature of 1100°C for one hour.
A method comprising: receiving raw signal data comprising signal noise; encoding , by a denoised autoencoder, the raw signal data by performing a denoising autoencoder operation to produce a latent representation; and decoding , by the denoised autoencoder, the latent representation to produce clean signal data reconstructed without the signal noise; characterised in that the denoised autoencoder is trained based on a loss function that emphasizes atrial activity and the raw signal data is raw intracardiac signal data. receiving raw signal data comprising signal noise; encoding , by a denoised autoencoder, the raw signal data by performing a denoising autoencoder operation to produce a latent representation; and decoding , by the denoised autoencoder, the latent representation to produce clean signal data reconstructed without the signal noise; characterised in that the denoised autoencoder is trained based on a loss function that emphasizes atrial activity and the raw signal data is raw intracardiac signal data.
A fastener for coupling two panel structures , comprising: a base member , having a proximal end portion and a distal end portion extending along a longitudinal axis ; a first member , provided on said base member towards said proximal end portion , said first member comprising a through bore having a first central axis that is parallel to said longitudinal axis ; a second member , provided on said base member towards said distal end portion and spaced apart from said first member so as to form a receiving portion configured to receive at least one panel structure , comprising an aperture defining an internal surface and having a second central axis that is coaxially aligned with said first central axis , said internal surface comprising at least one stop member protruding radially inwardly from said internal surface, and a nut member , coaxially aligned within and frangibly connected to said internal surface of said aperture , comprising at least one block member protruding radially outward from an outer surface of said nut member and configured to stoppingly engage with said at least one stop member , and wherein, during use, said nut member is configured to move from a first position, where said nut member is frangibly connected to said internal surface, to a second position, where said at least one block member is abuttingly engaged with said at last one stop member so as to allow axial movement of said nut member within said aperture of said second member . a base member , having a proximal end portion and a distal end portion extending along a longitudinal axis ; a first member , provided on said base member towards said proximal end portion , said first member comprising a through bore having a first central axis that is parallel to said longitudinal axis ; a second member , provided on said base member towards said distal end portion and spaced apart from said first member so as to form a receiving portion configured to receive at least one panel structure , comprising an aperture defining an internal surface and having a second central axis that is coaxially aligned with said first central axis , said internal surface comprising at least one stop member protruding radially inwardly from said internal surface, and a nut member , coaxially aligned within and frangibly connected to said internal surface of said aperture , comprising at least one block member protruding radially outward from an outer surface of said nut member and configured to stoppingly engage with said at least one stop member , and
Method for using a communication system connected to at least a first mobile device and a second mobile device , wherein the communication system is operable in at least a first operating state (A) and a second operating state, wherein the connection of the communication system to the first mobile device is prioritized in the first operating state (A) and the connection of the communication system to the second mobile device is prioritized in the second operating state (B), wherein the communication system is an in-vehicle communication system comprising a display means configured to facilitate controlling various vehicle functions, wherein the communication system further comprises the capability of a media system and/or an entertainment system, wherein the first operating state comprises a use of the first or second mobile device and optionally the in-vehicle communication system for placing a telephone call and/or receiving a telephone call, wherein the second operating state comprises a use of the first or second mobile device as well as the in-vehicle communication system for listening to music or another audio and/or video and/or multimedia content, wherein the prioritization of the mobile devices is configurable by means of a user input to the communication system , and wherein the operating state is changed in dependency of the vehicle driving condition.
Small fire system comprising a combustion chamber , a grille arranged in the lower area of the combustion chamber , a vibration element forming part of a vibration unit, arranged movably relative to the grille , wherein the vibration element comprises a vibration element base body , embodied in particular roof-like or roof-shaped with an upper edge pointing in the direction of the combustion chamber and side flanks protruding at an angle from it, characterised in that at least one tube-like or tube-shaped flow element is arranged or embodied on the vibration base element limiting the flow channel through which a frictionless medium can pass.
A sheet of labels comprising: a backing layer forming a reverse side of the sheet of labels ; and an image receiving layer attached to the backing layer , the image receiving layer comprising a plurality of removable labels and forming a front side of the sheet of labels ; the backing layer comprising at least one identifier associated with each of the plurality of labels , characterised in that one or more of the at least one identifier being visible from the front side of the sheet of labels through the image receiving layer at a location associated with a label that has not been removed from the plurality of labels , wherein one or more of the at least one identifier is visible from the front side of the sheet of labels through at least the backing layer ; and wherein the one or more of the at least one identifier is visible by at least one of the following: the identifiers are printed with a size and/or thickness and/or density such that the one or more of the at least one identifier is visible; the thickness of the image receiving layer is selected to ensure that the one or more of the at least one identifier is visible. a backing layer forming a reverse side of the sheet of labels ; and an image receiving layer attached to the backing layer , the image receiving layer comprising a plurality of removable labels and forming a front side of the sheet of labels ; the backing layer comprising at least one identifier associated with each of the plurality of labels , characterised in that one or more of the at least one identifier being visible from the front side of the sheet of labels through the image receiving layer at a location associated with a label that has not been removed from the plurality of labels , wherein one or more of the at least one identifier is visible from the front side of the sheet of labels through at least the backing layer ; and wherein the one or more of the at least one identifier is visible by at least one of the following: the identifiers are printed with a size and/or thickness and/or density such that the one or more of the at least one identifier is visible; the thickness of the image receiving layer is selected to ensure that the one or more of the at least one identifier is visible.
A method for manufacturing non-woven fabric with enhanced hardness and sound absorption, comprising the steps of: preparing a first filament with a non-circular cross-section in the shape of"+" or "Y" using polyester having a melting point of 250 °C or more; preparing a second filament using polyester having a melting point of 180 °C or less; mixing the first filament and the second filament such that a content of the second filament becomes 10-50 wt%, and preparing a long fiber nonwoven web using the obtained mixture; and treating the nonwoven web with hot air at a temperature lower than the temperature at which layers making up an automotive undercover in a plate for the automotive undercover are laminated and the temperature at which the undercover is formed, wherein hot air is passed from the top of the nonwoven web to the bottom of the nonwoven web, causing the second filaments to melt and then fuse with adjacent first filaments when they are cooled, wherein the degree of non-circular shape (diameter of a circle connecting outermost lines of the cross-section of filament/diameter of the central circle of the cross-section of filament) of the non-circular cross-section is 2.0~3.0, wherein the automotive undercover is a part in the form of the plate attached to the outermost layer at the bottom of an automobile; the automotive undercover consists of a polyester nonwoven fabric layer for the outside finish, a polypropylene film layer, the nonwoven fabric layer obtained by the above manufacturing method, and a polyester nonwoven fabric layer for the inner side finish sequentially stacked. preparing a first filament with a non-circular cross-section in the shape of"+" or "Y" using polyester having a melting point of 250 °C or more; preparing a second filament using polyester having a melting point of 180 °C or less; mixing the first filament and the second filament such that a content of the second filament becomes 10-50 wt%, and preparing a long fiber nonwoven web using the obtained mixture; and treating the nonwoven web with hot air at a temperature lower than the temperature at which layers making up an automotive undercover in a plate for the automotive undercover are laminated and the temperature at which the undercover is formed, wherein hot air is passed from the top of the nonwoven web to the bottom of the nonwoven web, causing the second filaments to melt and then fuse with adjacent first filaments when they are cooled, wherein the degree of non-circular shape (diameter of a circle connecting outermost lines of the cross-section of filament/diameter of the central circle of the cross-section of filament) of the non-circular cross-section is 2.0~3.0, wherein the automotive undercover is a part in the form of the plate attached to the outermost layer at the bottom of an automobile; the automotive undercover consists of a polyester nonwoven fabric layer for the outside finish, a polypropylene film layer, the nonwoven fabric layer obtained by the above manufacturing method, and a polyester nonwoven fabric layer for the inner side finish sequentially stacked.