mhurhangee/patent-ind-claim-en huggingface dataset:
A package configured for the sterility of medical supplies, the package comprising: a tray having at least one side wall defining an open end of the tray, a base panel opposite the open end, and a flange extending about a periphery of the at least one side wall at the open end of the tray, wherein the flange includes a planar top surface ; a cover configured to seal the open end of the tray when the cover is assembled onto the tray; a continuous barrier seal formed between the flange and the cover when the cover is assembled onto the tray, wherein the cover includes a peripheral underside surface configured to mate with the planar top surface of the flange of the tray; and a discontinuous sacrificial seal formed between the flange and the cover when the cover is assembled onto the tray, the discontinuous sacrificial seal configured to absorb stress applied to the flange, wherein the continuous barrier seal is disposed closer to an inner periphery of the flange than the discontinuous sacrificial seal, characterized in that at least one hole is formed on the planar top surface of the flange, the at least one hole being spaced apart from the discontinuous sacrificial seal and the continuous barrier seal being disposed closer to the inner periphery of the flange than the at least one hole. a tray having at least one side wall defining an open end of the tray, a base panel opposite the open end, and a flange extending about a periphery of the at least one side wall at the open end of the tray, wherein the flange includes a planar top surface ; a cover configured to seal the open end of the tray when the cover is assembled onto the tray; a continuous barrier seal formed between the flange and the cover when the cover is assembled onto the tray, wherein the cover includes a peripheral underside surface configured to mate with the planar top surface of the flange of the tray; and a discontinuous sacrificial seal formed between the flange and the cover when the cover is assembled onto the tray, the discontinuous sacrificial seal configured to absorb stress applied to the flange, wherein the continuous barrier seal is disposed closer to an inner periphery of the flange than the discontinuous sacrificial seal, characterized in that at least one hole is formed on the planar top surface of the flange, the at least one hole being spaced apart from the discontinuous sacrificial seal and the continuous barrier seal being disposed closer to the inner periphery of the flange than the at least one hole.
A fuel delivery system comprising: a turbine adapted to receive and expel fuel at different pressures; a pump in fluid communication with and mechanically coupled to the turbine , and configured to expel and receive the fuel at about the respective different pressures, wherein the turbine is configured to convert pressure energy of the fuel to kinetic energy to drive the pump ; and an oxygen removal unit in fluid communication with at least one of the turbine and the pump and configured to remove oxygen from the fuel; characterised in that the oxygen removal unit is located between the turbine and the pump for receiving the fuel from the turbine and expelling the fuel to the pump . a turbine adapted to receive and expel fuel at different pressures; a pump in fluid communication with and mechanically coupled to the turbine , and configured to expel and receive the fuel at about the respective different pressures, wherein the turbine is configured to convert pressure energy of the fuel to kinetic energy to drive the pump ; and an oxygen removal unit in fluid communication with at least one of the turbine and the pump and configured to remove oxygen from the fuel; characterised in that the oxygen removal unit is located between the turbine and the pump for receiving the fuel from the turbine and expelling the fuel to the pump .
A controlled-impedance cable termination comprising: (a) a plate composed of an electrically-conductive material and having a face surface and a device surface ; (b) at least one signal through hole in the plate extending between the face surface and the device surface ; (c) an insulating plug within each of the at least one signal through hole , the insulating plug extending between the face surface and the device surface and having a signal through aperture with a signal block opening in the face surface and a signal device opening in the device surface ; characterized in that the controlled-impedance cable termination further comprises: (d) an electrically-conductive, compliant, skewed-coil signal contact captured within each of the at least one signal through apertures , the signal contact having a coil of conductive, inherently elastic wire with a pair of oppositely extending leads, the leads extending in a direction angled from the coil axis such that, during compression, the coil loops are electrically shorted together while they slide along each other, the signal contact having a signal block contact point extending from the signal block opening and a signal device contact point extending from the signal device opening . (a) a plate composed of an electrically-conductive material and having a face surface and a device surface ; (b) at least one signal through hole in the plate extending between the face surface and the device surface ; (c) an insulating plug within each of the at least one signal through hole , the insulating plug extending between the face surface and the device surface and having a signal through aperture with a signal block opening in the face surface and a signal device opening in the device surface ;
A slide member comprising, a substrate irradiated by laser light with energy intensity per unit area of 0.053 J/mm 2 or more configuring an uneven part formed toward a vertical direction by the irradiating laser light and a melted and solidified portion on the uneven part , and a resin film including solid lubricant and a binder resin on the substrate , characterized in, that the portion of the substrate is a heterogeneous shape containing beads, rectangular parallelepipeds, or rhombuses.
A method for producing a whey protein fraction having a reduced β-casein derived proteose peptone content, said method comprising the steps of (i) providing a whey protein fraction; (ii) determining and quantifying said β-casein derived proteose peptones in said whey protein fraction; and (iii) selecting said whey protein fraction having at the most 10% by weight of β-casein derived proteose peptones based on the total protein in said whey protein fraction forming a selected whey protein fraction, or reducing the β-casein derived proteose peptone content in said whey protein fraction to a concentration of at the most 10% by weight based on total protein in the whey protein fraction forming a reduced whey protein fraction by gel filtration, Wherein determining and quantifying said β-casein derived proteose peptones in said whey protein fraction comprising the steps of: (i) providing a dairy-based product to be analysed; (ii) subjecting said product using liquid chromatography - mass spectrometry analysis; (iii) determining and/or quantifying said β-casein derived proteose peptones and/or β-casein in said product by detecting compounds of defined m/z values or deconvoluting one or more mass spectrometry spectra to calculate monoisotopic masses. (i) providing a whey protein fraction; (ii) determining and quantifying said β-casein derived proteose peptones in said whey protein fraction; and (iii) selecting said whey protein fraction having at the most 10% by weight of β-casein derived proteose peptones based on the total protein in said whey protein fraction forming a selected whey protein fraction, or reducing the β-casein derived proteose peptone content in said whey protein fraction to a concentration of at the most 10% by weight based on total protein in the whey protein fraction forming a reduced whey protein fraction by gel filtration, (i) providing a dairy-based product to be analysed; (ii) subjecting said product using liquid chromatography - mass spectrometry analysis; (iii) determining and/or quantifying said β-casein derived proteose peptones and/or β-casein in said product by detecting compounds of defined m/z values or deconvoluting one or more mass spectrometry spectra to calculate monoisotopic masses.
A cannula assembly for use in robotically assisted laparoscopic surgery, comprising: a) an adapter assembly configured for reception within an open end of a proximal housing portion of a robotic cannula and including a tubular body with a central passage supporting a primary seal ; and b) an insert tube dimensioned and configured to extend through the central passage of the tubular body of the adapter assembly and a tubular portion of the robotic cannula portion , the insert tube including an upper cup with an access port supporting a secondary seal, wherein the adapter assembly includes an upper housing for supporting the primary seal within the central passage of the tubular body of the adapter assembly , characterized in that an inlet port extends from the upper housing of the adapter assembly for connecting the adapter assembly to a gas delivery tube. a) an adapter assembly configured for reception within an open end of a proximal housing portion of a robotic cannula and including a tubular body with a central passage supporting a primary seal ; and b) an insert tube dimensioned and configured to extend through the central passage of the tubular body of the adapter assembly and a tubular portion of the robotic cannula portion , the insert tube including an upper cup with an access port supporting a secondary seal,
A method of preparing a MnBi-based sintered magnet comprising MnBi phase particles, the method comprising: (a) preparing a non-magnetic phase MnBi-based alloy; (b) subjecting the non-magnetic phase MnBi-based alloy to heat treatment to convert into a magnetic phase MnBi-based alloy; (c) pulverizing the magnetic phase alloy to prepare a MnBi hard magnetic phase powder; (d) mixing the MnBi hard magnetic phase powders with a Sn powder; (e) molding the mixture in magnetic field applying external magnetic field; and (f) sintering the molded product, wherein the non-magnetic phase MnBi-based alloy is prepared in the step (a) by a rapidly solidification process (RSP) in which a wheel speed is 55 to 75 m/s, wherein the heat treatment is performed in the step (b) at a temperature of 280 to 340°C and for 2 to 5 hours, wherein the MnBi-based alloy prepared in the step (a) has a crystal grain size of 50 to 100 nm, characterized in that the MnBi-based sintered magnet comprises MnBi phase particles as a main phase and Sn in the interface between particles, wherein MnBi has a composition which is represented by Mn x Bi 100-x , wherein x is 50 to 55, wherein the MnBi is included in an amount of 55 to 99.9 wt% with respect to the total weight of the MnBi-based sintered magnet, and wherein Sn is included in an amount of more than 0 and up to 10 wt% with respect to the total weight of the MnBi-based sintered magnet. (a) preparing a non-magnetic phase MnBi-based alloy; (b) subjecting the non-magnetic phase MnBi-based alloy to heat treatment to convert into a magnetic phase MnBi-based alloy; (c) pulverizing the magnetic phase alloy to prepare a MnBi hard magnetic phase powder; (d) mixing the MnBi hard magnetic phase powders with a Sn powder; (e) molding the mixture in magnetic field applying external magnetic field; and (f) sintering the molded product, wherein the non-magnetic phase MnBi-based alloy is prepared in the step (a) by a rapidly solidification process (RSP) in which a wheel speed is 55 to 75 m/s, wherein the heat treatment is performed in the step (b) at a temperature of 280 to 340°C and for 2 to 5 hours, wherein the MnBi-based alloy prepared in the step (a) has a crystal grain size of 50 to 100 nm, characterized in that the MnBi-based sintered magnet comprises MnBi phase particles as a main phase and Sn in the interface between particles, wherein MnBi has a composition which is represented by Mn x Bi 100-x , wherein x is 50 to 55, wherein the MnBi is included in an amount of 55 to 99.9 wt% with respect to the total weight of the MnBi-based sintered magnet, and wherein Sn is included in an amount of more than 0 and up to 10 wt% with respect to the total weight of the MnBi-based sintered magnet.
An automated animal washing system comprising: a housing having a base ; a wash tub positioned atop said base , said wash tub having an open upper end , a closed lower end , and a side wall extending between the upper and lower ends ; a drain disposed at the lower end of said wash tub for removing water from said wash tub ; a lid moveable between a closed position for covering the open upper end of said wash tub and an open position for providing access to the open upper end of said wash tub ; at least one water pipe for introducing water into said wash tub ; a shampoo pipe for introducing shampoo into said wash tub ; a control system disposed in said base for automatically operating said animal washing system ; characterized in that the automated washing system further comprises: a rotatable agitator disposed at the lower end of said wash tub for circulating water inside said wash tub ; and a cage disposed inside said wash tub , said cage having spaced legs (136A-136D) that project from a bottom of said cage for spacing said bottom of said cage away from said rotatable agitator . a housing having a base ; a wash tub positioned atop said base , said wash tub having an open upper end , a closed lower end , and a side wall extending between the upper and lower ends ; a drain disposed at the lower end of said wash tub for removing water from said wash tub ; a lid moveable between a closed position for covering the open upper end of said wash tub and an open position for providing access to the open upper end of said wash tub ; at least one water pipe for introducing water into said wash tub ; a shampoo pipe for introducing shampoo into said wash tub ; a control system disposed in said base for automatically operating said animal washing system ; characterized in that the automated washing system further comprises: a rotatable agitator disposed at the lower end of said wash tub for circulating water inside said wash tub ; and a cage disposed inside said wash tub , said cage having spaced legs (136A-136D) that project from a bottom of said cage for spacing said bottom of said cage away from said rotatable agitator . a rotatable agitator disposed at the lower end of said wash tub for circulating water inside said wash tub ; and a cage disposed inside said wash tub , said cage having spaced legs (136A-136D) that project from a bottom of said cage for spacing said bottom of said cage away from said rotatable agitator .
An article comprising a cellulose acetate tow band or a filter comprising a cellulose acetate tow band, wherein the cellulose acetate tow band comprises fibers comprising identification fibers and standard fibers, wherein each of the identification fibers exhibits at least one distinct feature, wherein the distinct features comprise one or more taggant cross-section shapes and/or one or more taggant cross-section sizes, wherein the identification fibers consist of 2 to 25 groups of distinguishable identification fibers, each group of distinguishable identification fibers being formed by identification fibers having the same distinct feature or the same combination of distinct features, wherein the number of the identification fibers in each group of the distinguishable identification fibers is defined as a fiber count, and wherein the distinct features in each group of distinguishable fibers and the fiber counts are suitable for being representative of at least one supply chain component of the fibers.
A method performed by a first terminal in a communication system, the method comprising: identifying resources for a physical sidelink control channel, PSCCH; identifying resources for a physical sidelink shared channel, PSSCH; transmitting, to a second terminal, first sidelink control information, SCI, on the identified resources for the PSCCH; and transmitting, to the second terminal, second SCI and data on the identified resources for the PSSCH, wherein the identifying the resources for the PSSCH further comprises: mapping the second SCI, according to an order of an index for first frequency domain and then an index for time domain; and mapping the data to a resource being not used for the second SCI. identifying resources for a physical sidelink control channel, PSCCH; identifying resources for a physical sidelink shared channel, PSSCH; transmitting, to a second terminal, first sidelink control information, SCI, on the identified resources for the PSCCH; and transmitting, to the second terminal, second SCI and data on the identified resources for the PSSCH, wherein the identifying the resources for the PSSCH further comprises: mapping the second SCI, according to an order of an index for first frequency domain and then an index for time domain; and mapping the data to a resource being not used for the second SCI. mapping the second SCI, according to an order of an index for first frequency domain and then an index for time domain; and mapping the data to a resource being not used for the second SCI.
A sensor assembly for magnetoelastic or inverse magnetostrictive sensing, the sensor assembly comprising: a drive sensor head including: a first support having a central arm ; a drive element located on the central arm of the first support and configured to induce a first magnetic flux that travels through a target ; four detection elements being approximately equally spaced from the drive element and from one another coupled to the support and configured to detect the first magnetic flux; and characterized by a first proximity sensor head including a first proximity sensor element on a second support positioned a fixed distance from the first support located at a fixed position relative to the four detection elements and a second proximity sensor head including a second proximity sensor element on a third support positioned a fixed distance from the first support located at fixed position relative to the four detection elements ; the first and second proximity sensor heads being positioned equidistant from, and on opposite sides of, the drive sensor head ; the first and second proximity sensor elements being configured to generate second and third magnetic fluxes that travel through the target and a first raw proximity signal and a second raw proximity signal based on a gap distance between the central arm and the target . a first support having a central arm ; a drive element located on the central arm of the first support and configured to induce a first magnetic flux that travels through a target ; four detection elements being approximately equally spaced from the drive element and from one another coupled to the support and configured to detect the first magnetic flux; and characterized by a first proximity sensor head including a first proximity sensor element on a second support positioned a fixed distance from the first support located at a fixed position relative to the four detection elements and a second proximity sensor head including a second proximity sensor element on a third support positioned a fixed distance from the first support located at fixed position relative to the four detection elements ; the first and second proximity sensor heads being positioned equidistant from, and on opposite sides of, the drive sensor head ; the first and second proximity sensor elements being configured to generate second and third magnetic fluxes that travel through the target and a first raw proximity signal and a second raw proximity signal based on a gap distance between the central arm and the target .
A method for manufacturing an imageable optical device, wherein the method comprises the steps of: pre-positioning at least two lens components (2100...7100, 1000; 2200...7200, 2000) along an optical axis to make the at least two lens components to be able to form an image, wherein a first structural gap (2410... 5410) and a second structural gap (2420... 5420) are arranged at radially different positions between two adjacent lens components; characterized in that the method further comprises the steps of: adjusting relative positions of the pre-positioned at least two lens components by means of active alignment; arranging a first adhesive in the first structural gap, and arranging a second adhesive in the second structural gap; sequentially curing the first adhesive and the second adhesive; and bringing the at least two lens components (2100... 7100, 1000; 2200... 7200, 2000) close to each other along the optical axis so that the first structural gap and the second structural gap have a same width. pre-positioning at least two lens components (2100...7100, 1000; 2200...7200, 2000) along an optical axis to make the at least two lens components to be able to form an image, wherein a first structural gap (2410... 5410) and a second structural gap (2420... 5420) are arranged at radially different positions between two adjacent lens components; characterized in that the method further comprises the steps of: adjusting relative positions of the pre-positioned at least two lens components by means of active alignment; arranging a first adhesive in the first structural gap, and arranging a second adhesive in the second structural gap; sequentially curing the first adhesive and the second adhesive; and bringing the at least two lens components (2100... 7100, 1000; 2200... 7200, 2000) close to each other along the optical axis so that the first structural gap and the second structural gap have a same width. adjusting relative positions of the pre-positioned at least two lens components by means of active alignment; arranging a first adhesive in the first structural gap, and arranging a second adhesive in the second structural gap; sequentially curing the first adhesive and the second adhesive; and bringing the at least two lens components (2100... 7100, 1000; 2200... 7200, 2000) close to each other along the optical axis so that the first structural gap and the second structural gap have a same width.