mhurhangee/patent-ind-claim-en huggingface dataset:
An extracting method of extracting a beverage liquid from an extraction target, comprising: an immersion step (S14) of immersing, in a liquid in an extraction container with a first posture (ST1), the extraction target; an inversion step (S16) of inverting a posture of the extraction container from the first posture (ST1) to a second posture (ST3); a sending step (S17) of sending the beverage liquid from a hole of the extraction container with the second posture (ST3); and a cleaning step (S4) of cleaning the extraction container , wherein: during the inversion step (S16), the extraction container is in a state in which the hole is closed, in the sending step (S17), the beverage liquid, which passes through extraction target, is sent, the cleaning step (S4) is performed after the sending step (S17), in the cleaning step (S4), the extraction container is cleaned by a liquid in a state in which the posture of the extraction container is inverted from the second posture (ST3) to the first posture (ST1). an immersion step (S14) of immersing, in a liquid in an extraction container with a first posture (ST1), the extraction target; an inversion step (S16) of inverting a posture of the extraction container from the first posture (ST1) to a second posture (ST3); a sending step (S17) of sending the beverage liquid from a hole of the extraction container with the second posture (ST3); and a cleaning step (S4) of cleaning the extraction container , wherein: during the inversion step (S16), the extraction container is in a state in which the hole is closed, in the sending step (S17), the beverage liquid, which passes through extraction target, is sent, the cleaning step (S4) is performed after the sending step (S17), in the cleaning step (S4), the extraction container is cleaned by a liquid in a state in which the posture of the extraction container is inverted from the second posture (ST3) to the first posture (ST1). during the inversion step (S16), the extraction container is in a state in which the hole is closed, in the sending step (S17), the beverage liquid, which passes through extraction target, is sent, the cleaning step (S4) is performed after the sending step (S17), in the cleaning step (S4), the extraction container is cleaned by a liquid in a state in which the posture of the extraction container is inverted from the second posture (ST3) to the first posture (ST1).
Method for operating a controllable shock absorber , in particular for a vehicle chassis, the shock absorber comprising a cylinder tube which has a hydraulic fluid which is received therein in a sealed manner, a piston which can be moved axially along a cylinder tube axis (A) within the cylinder tube and divides the cylinder tube into two working spaces , a piston rod which is oriented parallel to the cylinder tube axis (A) and is connected to the piston , the piston having at least two fluid leadthroughs , by way of which the one working space is connected to the other working space , a first valve assembly for damping the piston movement in a first actuating direction (R1) being arranged on a first fluid leadthrough , and a second valve assembly for damping the piston movement in a second actuating direction (R2) being arranged on a second fluid leadthrough , each valve assembly having at least one valve disc which is seated on a valve seat in a closed valve position, and which is spaced apart at least partially from the valve seat in an open valve position, each valve assembly comprising a pilot control chamber , it being possible for the respective valve disc to be prestressed into the closed valve position by way of pressure loading of the pilot control chamber , it being possible for the pressure in the respective pilot control chambers to be set by way of at least one pilot control valve , the pilot control valve comprising a valve body which can be moved in a defined manner between a closed position and an open position, as a result of which an outflow cross section between the pilot control chambers and the working spaces can be set in a targeted manner, characterized in that the valve body of the pilot control valve is loaded on the outflow side with a back pressure (p) in a defined manner, as a result of which the movement of the valve body is damped.
A coating composition, comprising: 5 wt% to 70 wt% of a latex or a water-dispersible film forming polymer, based on the total weight of the coating composition; a surfactant present in the coating composition at 0.1% to 1% on the continuous phase of the coating composition; a polymeric associative thickener present in the coating composition at 0.1% to 2% on the continuous phase of the coating composition; 0.1 wt% to 5 wt% a styrene acrylic resin, based on the total weight of the coating composition; and an aqueous diluent. 5 wt% to 70 wt% of a latex or a water-dispersible film forming polymer, based on the total weight of the coating composition; a surfactant present in the coating composition at 0.1% to 1% on the continuous phase of the coating composition; a polymeric associative thickener present in the coating composition at 0.1% to 2% on the continuous phase of the coating composition; 0.1 wt% to 5 wt% a styrene acrylic resin, based on the total weight of the coating composition; and an aqueous diluent.
An apparatus comprising: (a) a shaft having a proximal end and a distal end; (b) an expandable dilator located at the distal end of the shaft, wherein the expandable dilator is operable to transition between a non-expanded configuration and an expanded configuration, wherein the expandable dilator has a proximal end and a distal end; and (c) a wire assembly , wherein the wire assembly is disposed about an exterior of the expandable dilator, wherein the wire assembly has a proximal end and a distal end, wherein the proximal end of the wire assembly is proximal to the proximal end of the expandable dilator, wherein the distal end of the wire assembly is distal to the distal end of the dilator, wherein the wire assembly is configured to apply bipolar RF energy to tissue, wherein the wire assembly comprises a first plurality of wires and a second plurality of wires , wherein the first plurality of wires is configured to provide a first pole of the RF energy, wherein the second plurality of wires is configured to provide a second pole of the RF energy, characterised in that the wire assembly further comprises a third plurality of wires , wherein the third plurality of wires include a non-conductive coating , and wherein the wires of the third plurality of wires are angularly interposed between the wires of the first and second pluralities of wires. (a) a shaft having a proximal end and a distal end; (b) an expandable dilator located at the distal end of the shaft, wherein the expandable dilator is operable to transition between a non-expanded configuration and an expanded configuration, wherein the expandable dilator has a proximal end and a distal end; and (c) a wire assembly , wherein the wire assembly is disposed about an exterior of the expandable dilator, wherein the wire assembly has a proximal end and a distal end, wherein the proximal end of the wire assembly is proximal to the proximal end of the expandable dilator, wherein the distal end of the wire assembly is distal to the distal end of the dilator, wherein the wire assembly is configured to apply bipolar RF energy to tissue,
Cavitation sensing unit configured to be acoustically connected to a control valve , said cavitation sensing unit comprising: a frame body having an elongated shape defining a longitudinal direction, said frame body including a waveguide beam element having a first surface attached to an acoustic transducer and a second surface, opposite to said first surface, attached to a printed circuit board , and a second connecting partner , arranged on one extremity of said frame body, and configured to be inserted into a housing of the body of said control valve , and acoustically connected to an inner chamber inside the housing of the body of said control valve , the cavitation sensing unit being characterized in that : said a wave-guide beam element extends along said longitudinal direction of the elongated frame body away from the second connecting partner . a frame body having an elongated shape defining a longitudinal direction, said frame body including a waveguide beam element having a first surface attached to an acoustic transducer and a second surface, opposite to said first surface, attached to a printed circuit board , and a second connecting partner , arranged on one extremity of said frame body, and configured to be inserted into a housing of the body of said control valve , and acoustically connected to an inner chamber inside the housing of the body of said control valve , the cavitation sensing unit being characterized in that : said a wave-guide beam element extends along said longitudinal direction of the elongated frame body away from the second connecting partner .
A portable electronic device , comprising: a housing at least partially defining an internal volume; a battery disposed in the internal volume, the battery comprising a sidewall and a top portion extending past the sidewall to define a flange ; a component positioned adjacent to the battery , at least a portion of the component extending beyond an edge of the flange toward the sidewall ; characterised by comprising: a structural component disposed adjacent to the battery , the structural component defining a groove positioned in-plane with the flange ; and a flexible electrical connector disposed between the flange and the groove , wherein the flexible electrical connector is deflectable into the groove in response to movement of the flange in case the battery shifts or moves slightly relative to the housing . a housing at least partially defining an internal volume; a battery disposed in the internal volume, the battery comprising a sidewall and a top portion extending past the sidewall to define a flange ; a component positioned adjacent to the battery , at least a portion of the component extending beyond an edge of the flange toward the sidewall ; characterised by comprising: a structural component disposed adjacent to the battery , the structural component defining a groove positioned in-plane with the flange ; and a flexible electrical connector disposed between the flange and the groove , wherein the flexible electrical connector is deflectable into the groove in response to movement of the flange in case the battery shifts or moves slightly relative to the housing .
An immunogenic composition comprising isolated Clostridium difficile CDTb protein wherein the isolated Clostridium difficile CDTb protein is a truncated CDTb protein with the prodomain corresponding to amino acids 48-211 of SEQ ID NO:3 or the equivalent in a binary toxin isolated from a different strain of C . difficile removed, comprising the receptor binding domain wherein the isolated Clostridium difficile CDTb protein comprises; (i) SEQ ID NO:9 or SEQ ID NO:51; or (ii) A variant of CDTb having at least 90% sequence identity to SEQ ID NO: 9 or SEQ ID NO:51 and the immunogenic composition comprises an isolated Clostridium difficile CDTa protein containing a mutation from glutamate to a different amino acid at position 428 or 430 which reduces its ADP-ribosyltransferase activity, wherein the isolated Clostridium difficile CDTa protein is (i) SEQ ID NO:46; SEQ ID NO:48; SEQ ID NO:52; or SEQ ID NO:54; or (ii) a variant of CDTa having at least 80%, 85%, 88%, 90%, 92%, 95%, 98%, 99%, 100% sequence identity to SEQ ID NO:46; SEQ ID NO:48; SEQ ID NO:52; or SEQ ID NO:54; or (iii) a fragment of CDTa having at least 30, 50, 80, 100, 120, 150, 200, 250, 300, 350 or 400 contiguous amino acids of SEQ ID NO:46; SEQ ID NO:48; SEQ ID NO:52; or SEQ ID NO:54. (i) SEQ ID NO:9 or SEQ ID NO:51; or (ii) A variant of CDTb having at least 90% sequence identity to SEQ ID NO: 9 or SEQ ID NO:51
Intraocular lens comprising an optical part and an adjoining haptic part , wherein the optical part comprises an optically imaging element and a telescope , the entire telescope has an integral embodiment and is integrated into the optically imaging element , wherein the telescope is a convex-concave telescope embodied as a single lens system, and a front side facing the incident light in the case of light incident on the intraocular lens has convex curvature and a rear side facing away from the incident light has concave curvature, characterized in that the telescope also has an integral embodiment with the optically imaging element.
A protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein aspartic acid, which is an amino acid corresponding to position 676 of SEQ ID NO: 3, is substituted with tyrosine.
Method for calibrating elementary patterns in shaped electron beam lithography, comprising the following steps: a. producing, by means of shaped electron beam lithography, at least one calibration pattern (MCO, MCH, MCV) comprising geometric figures which each have a critical nominal dimension (CD 0 ) and which are divided into elementary patterns (ME) of smaller sizes than each nominal critical dimension, the elementary patterns of each geometric figure having identical dimensions and those of separate geometric figures having different dimensions; b. measuring the real critical dimension (CD m ) of each geometric figure; and c. applying a regression method based on the real critical dimensions determined in this manner in order to construct a mathematical model expressing: - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0 , W 0 , L 0 ) of the elementary patterns. a. producing, by means of shaped electron beam lithography, at least one calibration pattern (MCO, MCH, MCV) comprising geometric figures which each have a critical nominal dimension (CD 0 ) and which are divided into elementary patterns (ME) of smaller sizes than each nominal critical dimension, the elementary patterns of each geometric figure having identical dimensions and those of separate geometric figures having different dimensions; b. measuring the real critical dimension (CD m ) of each geometric figure; and c. applying a regression method based on the real critical dimensions determined in this manner in order to construct a mathematical model expressing: - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0 , W 0 , L 0 ) of the elementary patterns. - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0 , W 0 , L 0 ) of the elementary patterns.
A fall detection system comprising: at least one sensor configured to detect acceleration and orientation of a user; at least one indicator device having an alarm mode; and a controller operatively connected to the at least one sensor and the at least one indicator device , the controller programmed or configured to: receive data generated by the at least one sensor ; compare at least a portion of the received data with at least one specified parameter indicative of a fall event; and based on the comparison, activating or causing the activation of the at least one indicator device to enter the alarm mode, wherein the at least one specified parameter comprises at least one of the following: an acceleration exceeding a predetermined threshold, a change between a starting orientation of the user before an acceleration event and a final orientation of the user after the acceleration event, a lack of movement of the user for a predetermined length of time after the acceleration event, or any combination thereof, characterized in that , the fall detection system is integrated in a self-contained breathing apparatus, SCBA, in that at least a portion of the fall detection system is connected to a rigid frame of the SCBA , the frame is positioned proximate to a center of gravity of the user to determine the orientation of the user based on an orientation of the at least one sensor . at least one sensor configured to detect acceleration and orientation of a user; at least one indicator device having an alarm mode; and a controller operatively connected to the at least one sensor and the at least one indicator device , the controller programmed or configured to: receive data generated by the at least one sensor ; compare at least a portion of the received data with at least one specified parameter indicative of a fall event; and based on the comparison, activating or causing the activation of the at least one indicator device to enter the alarm mode, receive data generated by the at least one sensor ; compare at least a portion of the received data with at least one specified parameter indicative of a fall event; and based on the comparison, activating or causing the activation of the at least one indicator device to enter the alarm mode, wherein the at least one specified parameter comprises at least one of the following: an acceleration exceeding a predetermined threshold, a change between a starting orientation of the user before an acceleration event and a final orientation of the user after the acceleration event, a lack of movement of the user for a predetermined length of time after the acceleration event, or any combination thereof, characterized in that , the fall detection system is integrated in a self-contained breathing apparatus, SCBA, in that at least a portion of the fall detection system is connected to a rigid frame of the SCBA , the frame is positioned proximate to a center of gravity of the user to determine the orientation of the user based on an orientation of the at least one sensor .
Method of producing a consistent granular frozen mass of alcoholic and nonalcoholic beverages characterized in that the beverage under pressure of 1*10 5 Pa to 3*10 5 Pa (1 to 3 bars) is fed into the inner tube (20.1) of the freezing double-shell exchanger , on this inner tube (20.1) of the double-shell exchanger with beverage, the cold freezing glycol with temperature -12 to -16 °C circulating in the outer tube (20.2) of exchanger acts for 8 - 16 min., until the beverage inside the inner tube (20.1) freezes, subsequently the action of the cold freezing glycol on the inner tube (20.1) of the exchanger is stopped, subsequently the hot defrosting glycol with temperature +20 to +40 °C is fed into the outer tube (20.2) of the double-shell exchanger , its action will release the frozen beverage from the wall of the inner tube (20.1) of the double-shell exchanger after 10 - 30 seconds, after the release of the frozen beverage from the inner tube (20.1) of the double-shell exchanger the frozen beverage is broken into the granulated frozen mass.
Card reader comprising a printed circuit board , a magnetic head and a smart card connector , said magnetic head and said smart card connector sharing a common operating volume for card reading, said reader being characterized in that the printed circuit board comprises an opening within which said magnetic head is mobile between an idle position, wherein the magnetic head is not solicited, and a reading position, wherein the magnetic head is moved in said opening.
A pod for storing and dispensing a beverage preparation ingredient during a dispensing operation, the pod comprising: a body defining a cavity for storing the beverage preparation ingredient, said body comprising a dispensing side and a closed side , and at least one side wall extending from the closed side to the dispensing side ; and an actuation member contained within said cavity ; wherein: the actuation member is configured to cause an opening to be formed between said cavity and a region outside the pod when actuated; characterized in that , said opening is formed around a perimeter of a dispensing surface of the pod at a junction formed between the at least one side wall and the dispensing surface , the dispensing surface being provided at the dispensing side of the body. a body defining a cavity for storing the beverage preparation ingredient, said body comprising a dispensing side and a closed side , and at least one side wall extending from the closed side to the dispensing side ; and an actuation member contained within said cavity ; the actuation member is configured to cause an opening to be formed between said cavity and a region outside the pod when actuated; characterized in that , said opening is formed around a perimeter of a dispensing surface of the pod at a junction formed between the at least one side wall and the dispensing surface , the dispensing surface being provided at the dispensing side of the body.
A method of detecting a material response, including: providing an oscillating primary magnetic field to cause a sample to produce a secondary magnetic field; reducing the effect on an atomic magnetometer of components of the primary and secondary magnetic fields in a direction substantially orthogonal to a surface of the sample ; detecting the secondary magnetic field with the atomic magnetometer to detect the material response; wherein reducing the effect on an atomic magnetometer of components of the primary and secondary magnetic fields in a direction substantially orthogonal to a surface of a sample includes: providing a compensatory magnetic field at the atomic magnetometer including a component substantially orthogonal to the surface of the sample ; and/or aligning an insensitive axis of the atomic magnetometer with a direction substantially orthogonal to the surface of the sample . providing an oscillating primary magnetic field to cause a sample to produce a secondary magnetic field; reducing the effect on an atomic magnetometer of components of the primary and secondary magnetic fields in a direction substantially orthogonal to a surface of the sample ; detecting the secondary magnetic field with the atomic magnetometer to detect the material response; wherein reducing the effect on an atomic magnetometer of components of the primary and secondary magnetic fields in a direction substantially orthogonal to a surface of a sample includes: providing a compensatory magnetic field at the atomic magnetometer including a component substantially orthogonal to the surface of the sample ; and/or aligning an insensitive axis of the atomic magnetometer with a direction substantially orthogonal to the surface of the sample . providing a compensatory magnetic field at the atomic magnetometer including a component substantially orthogonal to the surface of the sample ; and/or aligning an insensitive axis of the atomic magnetometer with a direction substantially orthogonal to the surface of the sample .