mhurhangee/patent-ind-claim-en huggingface dataset:
Internal loader with a U-shaped vehicle frame directed in the longitudinal direction (R) of the vehicle with two limbs and with a loading shaft arranged between the limbs and which can be closed by an end gate , the end gate having an underride guard , characterised in that - the underride guard and the end gate are coupled to one another via a releasable first receptacle , and - the vehicle frame comprises a second receptacle for detachably attaching the underride guard , so that the underride guard can be remounted from a position (P1) provided on the end gate to a position (P2) provided on the vehicle frame and vice versa. - the underride guard and the end gate are coupled to one another via a releasable first receptacle , and - the vehicle frame comprises a second receptacle for detachably attaching the underride guard ,
A liquid chromatography component, which comprises: - a column with filler particles filled therein; - a filter disposed on each of the upstream and downstream sides of the column for preventing leakage of the filler particles; and - an additional prefilter on the upstream side of the column; wherein said filler particles have an average particle size in the range of 2 to 20 μm, said liquid chromatography component being characterized in that said prefilter has a filtering particle size in the range of 1/6 to 1/3 of the average particle size of said filler particles, and in that the column and the prefilter are integrally disposed within a single cylindrical container. - a column with filler particles filled therein; - a filter disposed on each of the upstream and downstream sides of the column for preventing leakage of the filler particles; and - an additional prefilter on the upstream side of the column;
A hybrid flow redox battery system comprising an electrochemical cell , an anolyte tank , a catholyte tank , one or more tank separators , a plurality of electrolyte pathways , one or more turbines , and one or more power generation circuits , wherein: the electrochemical cell comprises an ion-exchange membrane positioned between and electrochemically engaged with an anode and a cathode ; at least one of the one or more power generation circuits is electrically coupled to the anode and the cathode ; the anolyte tank includes an upper anolyte opening and a lower anolyte opening positioned below the upper anolyte opening ; the catholyte tank includes an upper catholyte opening and a lower catholyte opening positioned below the upper catholyte opening ; one or more of the plurality of electrolyte pathways extend between the upper anolyte opening and the anode and extend between the lower anolyte opening and the anode to fluidly couple the anolyte tank to the anode ; one or more of the plurality of electrolyte pathways extend between the upper catholyte opening and the cathode and extend between the lower catholyte opening and the cathode to fluidly couple the catholyte tank to the cathode ; the one or more turbines are fluidly coupled to one or more of the plurality of electrolyte pathways ; the one or more tank separators are positioned within one or both of the anolyte tank and the catholyte tank ; and the one or more tank separators are translatable in a downward direction to induce electrolyte flow from one or both of the lower anolyte opening and the lower catholyte opening through the one or more turbines to hydroelectrically generate power. the electrochemical cell comprises an ion-exchange membrane positioned between and electrochemically engaged with an anode and a cathode ; at least one of the one or more power generation circuits is electrically coupled to the anode and the cathode ; the anolyte tank includes an upper anolyte opening and a lower anolyte opening positioned below the upper anolyte opening ; the catholyte tank includes an upper catholyte opening and a lower catholyte opening positioned below the upper catholyte opening ; one or more of the plurality of electrolyte pathways extend between the upper anolyte opening and the anode and extend between the lower anolyte opening and the anode to fluidly couple the anolyte tank to the anode ; one or more of the plurality of electrolyte pathways extend between the upper catholyte opening and the cathode and extend between the lower catholyte opening and the cathode to fluidly couple the catholyte tank to the cathode ; the one or more turbines are fluidly coupled to one or more of the plurality of electrolyte pathways ; the one or more tank separators are positioned within one or both of the anolyte tank and the catholyte tank ; and the one or more tank separators are translatable in a downward direction to induce electrolyte flow from one or both of the lower anolyte opening and the lower catholyte opening through the one or more turbines to hydroelectrically generate power.
A system comprising: a catheter comprising a plurality of lumens extending from a proximal end of the catheter to a distal end of the catheter; a frame having a compressed configuration enabling translational advancement of the frame through the catheter, the frame comprising a first configuration enabling positioning of the frame at least partially around a valve annulus; at least one cinch mechanism coupled to the frame and configured to transition the frame between the first configuration and a second configuration different from the first configuration; a plurality of anchors (310, 514, 524, 740, 816-819, 1310) supported by the frame, characterized in that each anchor comprises a proximal end comprising an anchor head and a distal end configured for mated engagement with another anchor of the plurality of anchors to form a conjoined anchor pair, each anchor comprising an anchor lumen extending from a proximate anchor end to a distal anchor end; the system being further characterized by a guidance device axially translatable within the anchor lumen and through tissue of the valve annulus, the guidance device configured to define a path through the tissue of the valve annulus from a first anchor towards a second anchor, the first anchor translatable over the guidance device along the path through the tissue of the valve annulus towards the second anchor to form a conjoined anchor pair. a catheter comprising a plurality of lumens extending from a proximal end of the catheter to a distal end of the catheter; a frame having a compressed configuration enabling translational advancement of the frame through the catheter, the frame comprising a first configuration enabling positioning of the frame at least partially around a valve annulus; at least one cinch mechanism coupled to the frame and configured to transition the frame between the first configuration and a second configuration different from the first configuration; a plurality of anchors (310, 514, 524, 740, 816-819, 1310) supported by the frame, characterized in that each anchor comprises a proximal end comprising an anchor head and a distal end configured for mated engagement with another anchor of the plurality of anchors to form a conjoined anchor pair, each anchor comprising an anchor lumen extending from a proximate anchor end to a distal anchor end; the system being further characterized by a guidance device axially translatable within the anchor lumen and through tissue of the valve annulus, the guidance device configured to define a path through the tissue of the valve annulus from a first anchor towards a second anchor, the first anchor translatable over the guidance device along the path through the tissue of the valve annulus towards the second anchor to form a conjoined anchor pair.
A system for clearing precipitation from a window , the system comprising: a window ; one or more transducers(1-8); and a generator for generating an ultrasonic drive signal for the one or more transducers (1-8), wherein the one or more transducers are fixed to a surface of the top layer of glass of the window and driven by the generator to produce ultrasonic waves such as surface acoustic waves, wherein the waves propagate substantially only through the top layer of glass of the window , and wherein the one or more transducers (1-8) are one or respective inter-digital transducers (1-8), characterized by the fact, that the system comprises a control system having a sensor arranged to sense ultrasonic waves emitted by one or more of the said transducers (1-8) for detecting the presence of precipitation; and a controller responsive to the sensor for controlling the operation of the system.
An aircraft gas turbine engine nacelle comprising a thrust reversal arrangement, the thrust reversal arrangement comprising: at least first and second circumferentially spaced fixed thrust reverser cascade boxes , each comprising a plurality of thrust reverser vanes configured to direct air forwardly; at least one circumferential turning vane configured to direct air in a direction having a circumferential component; the circumferential turning vane being moveable from a stowed position provided between or forward of the first and second circumferentially spaced thrust reverser cascade boxes , and a deployed position axially rearwardly of the thrust reverser cascade boxes , wherein the nacelle comprises an axially movable aft cowl moveable between a forward stowed position and a rearward deployed position, and wherein the or each circumferential turning vane is mounted to the aft cowl such that the circumferential turning vane and aft cowl move together when moving between the deployed and stowed positions. at least first and second circumferentially spaced fixed thrust reverser cascade boxes , each comprising a plurality of thrust reverser vanes configured to direct air forwardly; at least one circumferential turning vane configured to direct air in a direction having a circumferential component; the circumferential turning vane being moveable from a stowed position provided between or forward of the first and second circumferentially spaced thrust reverser cascade boxes , and a deployed position axially rearwardly of the thrust reverser cascade boxes , wherein the nacelle comprises an axially movable aft cowl moveable between a forward stowed position and a rearward deployed position, and wherein the or each circumferential turning vane is mounted to the aft cowl such that the circumferential turning vane and aft cowl move together when moving between the deployed and stowed positions.
A porous hollow fiber membrane having an anticoagulant immobilized thereon; the membrane comprising a blend of i) a polysulfone, polyethersulfone or polyarylethersulfone; ii) a polyvinylpyrrolidone; and iii) a chitosan.
Paper , in particular for use in the manufacture of corrugated cardboard, the paper being formed from at least two layers of different composition which are bonded together and the paper containing recycled paper fibres and grass fibres, the grass fibres being fibres of sweet and/or sour grass and/or seaweed and/or algae, characterised in that a first layer of the paper is designed as a base layer and contains a minimum proportion of recycled paper fibres of 70% by weight and a maximum proportion of grass fibres of 30% by weight or no grass fibres, in that a second layer of the paper forms a top layer with a minimum proportion of grass fibres of% by weight and a maximum proportion of grass fibres of 30 % by weight or no grass fibres, in that a second layer of the paper forms a top layer with a minimum proportion of grass fibres of 20 % by weight and a maximum proportion of recycled paper fibres of 80 % by weight, and in that the proportion of grass fibres in the top layer is higher than the proportion of grass fibres in the base layer .
A sense amplifier circuit for improving sensing margin and speed, comprising: a pair of degeneration transistors , a gate of each of the pair of degeneration transistors being selectively coupled to a ground; a pair of load transistors coupled to the pair of degeneration transistors; a pair of capacitors , each of the pair of capacitors being coupled to a drain of one of the pair of load transistors and a gate of the other of the pair of load transistors; a pair of sense amplifier nodes , each of the pair of sense amplifier nodes being located between a drain of one of the pair of load transistors and one of the pair of capacitors ; a first pair of sensing switches , each of the first pair of sensing switches being coupled to the gate of one of the pair of load transistors and the drain of a same one of the pair of load transistors; a second pair of sensing switches , each of the second pair of sensing switches being coupled to the drain of one of the pair of load transistors; and a third pair of sensing switches configured in parallel with the second pair of sensing switches , each of the third pair of sensing switches being coupled to the drain of one of the pair of load transistors and cross coupled below an opposite one of the second pair of sensing switches. a pair of degeneration transistors , a gate of each of the pair of degeneration transistors being selectively coupled to a ground; a pair of load transistors coupled to the pair of degeneration transistors; a pair of capacitors , each of the pair of capacitors being coupled to a drain of one of the pair of load transistors and a gate of the other of the pair of load transistors; a pair of sense amplifier nodes , each of the pair of sense amplifier nodes being located between a drain of one of the pair of load transistors and one of the pair of capacitors ; a first pair of sensing switches , each of the first pair of sensing switches being coupled to the gate of one of the pair of load transistors and the drain of a same one of the pair of load transistors; a second pair of sensing switches , each of the second pair of sensing switches being coupled to the drain of one of the pair of load transistors; and a third pair of sensing switches configured in parallel with the second pair of sensing switches , each of the third pair of sensing switches being coupled to the drain of one of the pair of load transistors and cross coupled below an opposite one of the second pair of sensing switches.
An electronic pump, comprising a first housing , a second housing , an end cover , an outer rotor part , an inner stator part and a circuit board ; the first housing , the second housing and the end cover being fixedly connected to form a pump chamber of the electronic pump, and the pump chamber being divided by a partition into a wet chamber allowing a working medium to pass through and at least one dry chamber where there is no working medium passing through, wherein the rotor part is arranged in the wet chamber , and the stator part and the circuit board are arranged in the dry chamber ; the electronic pump further comprises a shaft , and the shaft and the partition are fixed by injection molding; the partition forms a partition cavity, wherein the partition comprises a first side wall configured to separate the stator part from the rotor part and a top portion , said top portion comprising a sunken portion sinking from the top of the partition to an interior of the partition and being formed at a central area at the top portion of the partition , the sunken portion comprises a second side wall and a bottom , and forms a sunken cavity, the stator part is arranged in the partition cavity, the rotor part is arranged outside the partition cavity, and the shaft is fixed to the bottom of the sunken portion ; an upper end of the shaft extends out of the partition , the rotor part cooperates with an extending section of the shaft , and a portion of the rotor part of a rotation pair between the rotor part and the shaft is a cooperation portion of the rotor part ; the rotor part is of a bell shape and has a rotor cavity, wherein the rotor part comprises a rotor side wall and a rotor top portion, and wherein the cooperation portion comprises a first portion located above a lowest portion of a cavity top surface of the rotor cavity, and a second portion extending from the lowest portion of the cavity top surface into the rotor cavity, and at least a part of the second portion is located in the sunken cavity; and characterized in that , the second side wall of the sunken portion has a thickness smaller than a thickness of the top portion of the partition , a plurality of first reinforcing ribs are provided at an outer side of the second side wall and are configured to connect an inner side of the top portion and the second side wall , and the plurality of first reinforcing ribs start from the second side wall and end at an inner wall of the partition and are divergently arranged; and wherein, a plurality of second reinforcing ribs are formed on the first side wall of the partition .
Compression bandage comprising a first nonwoven layer and at least a second nonwoven layer which is connected to the first nonwoven layer in a planar manner, the two nonwoven layers being interconnected by means of a stitch-bonding process via an elastic sewing thread , characterized in that superabsorbent fibers are provided in the first nonwoven layer.
Mobile unit , in particular mobile cleaning robot, with - a drive facility for moving the mobile unit in an environment, - a navigation unit for orientation in the environment and - a transfer facility for wirelessly exchanging data, - wherein the mobile unit is configured to receive a point in the environment via the transfer facility and to approach the point by means of the navigation unit and the drive facility , characterised in that - the mobile unit has a sensor for measuring data (12-15), which comprises a smoke sensor, a gas sensor, a temperature sensor, a sensor for measuring humidity, a sensor for detecting biological substances and/or a sensor for identifying odours, and - the mobile unit is configured, upon reaching the point , to carry out an action, with the aid of the sensor, which is received together with the point via the transfer facility and is assigned to the point , - wherein the action comprises measuring data at the point with the aid of the sensor. - a drive facility for moving the mobile unit in an environment, - a navigation unit for orientation in the environment and - a transfer facility for wirelessly exchanging data, - wherein the mobile unit is configured to receive a point in the environment via the transfer facility and to approach the point by means of the navigation unit and the drive facility , - the mobile unit has a sensor for measuring data (12-15), which comprises a smoke sensor, a gas sensor, a temperature sensor, a sensor for measuring humidity, a sensor for detecting biological substances and/or a sensor for identifying odours, and - the mobile unit is configured, upon reaching the point , to carry out an action, with the aid of the sensor, which is received together with the point via the transfer facility and is assigned to the point , - wherein the action comprises measuring data at the point with the aid of the sensor.
A method of recovering a dielectric fluid used for immersion cooling of at least one electronic device, the method comprising: filtering the dielectric fluid to remove a first group of solid contaminants; distilling the filtered dielectric fluid in at least one distillation tank to produce a vaporized dielectric fluid; separating the vaporized dielectric fluid from less volatile contaminants, wherein the vaporized dielectric fluid is introduced as a condensate into a circulation tank ; circulating the condensate by pumping the condensate through the circulation tank through at least one filter ; filtering the circulating condensate using at least one filter disposed to remove a second group of contaminants; and returning the filtered condensate to the circulation tank , wherein the at least one distillation tank comprises a first distillation tank in fluid communication with a second distillation tank and producing and separating the vaporized dielectric fluid comprises: heating dielectric fluid in the first distillation tank to a first calibrated temperature to vaporize the dielectric fluid; collecting the condensate of the vaporized dielectric fluid in the second distillation tank ; and heating the collected condensate in the second distillation tank to a second calibrated temperature to vaporize the collected condensate. filtering the dielectric fluid to remove a first group of solid contaminants; distilling the filtered dielectric fluid in at least one distillation tank to produce a vaporized dielectric fluid; separating the vaporized dielectric fluid from less volatile contaminants, wherein the vaporized dielectric fluid is introduced as a condensate into a circulation tank ; circulating the condensate by pumping the condensate through the circulation tank through at least one filter ; filtering the circulating condensate using at least one filter disposed to remove a second group of contaminants; and returning the filtered condensate to the circulation tank , heating dielectric fluid in the first distillation tank to a first calibrated temperature to vaporize the dielectric fluid; collecting the condensate of the vaporized dielectric fluid in the second distillation tank ; and heating the collected condensate in the second distillation tank to a second calibrated temperature to vaporize the collected condensate.
A method for measuring a subject's three dimensional eye movement (X,Y,R) including torsional rotation (R), the method comprising - providing a contact lens placed over the subject's eye , wherein the contact lens comprises one or more markers that are positioned at a lateral offset (D) with respect to a central part of the contact lens , which central part is positioned over a pupil of the subject's eye; and - calculating an angle of torsional rotation (R) of the subject's eye around a line of sight axis (C) of the subject's eye by using a video camera to track a position of the one or more markers ; characterised in that the contact lens is painted with a ring-shaped opaque area surrounding a transparent central part , wherein the opaque area is disposed to partly cover an outside ring area of a subject's pupil to mask the outside ring area of the subject's pupil from the video camera to portray the subject's pupil with a constant shape and/or diameter to the video camera . - providing a contact lens placed over the subject's eye , wherein the contact lens comprises one or more markers that are positioned at a lateral offset (D) with respect to a central part of the contact lens , which central part is positioned over a pupil of the subject's eye; and - calculating an angle of torsional rotation (R) of the subject's eye around a line of sight axis (C) of the subject's eye by using a video camera to track a position of the one or more markers ;