mhurhangee/patent-ind-claim-en huggingface dataset:
A printing method for printing on a three-dimensional workpiece (W) using a three-dimensional object printing apparatus comprising: a liquid discharge head having a nozzle surface (F) on which a plurality of nozzles which discharge a liquid are provided; and a moving mechanism that changes a position and a pose of the liquid discharge head relative to the workpiece (W), wherein the workpiece (W) has a first surface (WF1) and a second surface (WF2) that forms a corner (WC) bent or curved in a convex shape between the first surface (WF1) and the second surface (WF2), the printing method comprising: a first printing operation step wherein the liquid discharge head performs printing on the first surface (WF1) while the moving mechanism moves the liquid discharge head along a first scanning axis (AS1) with respect to the workpiece (W), characterized in that a first discharge vector (VD1) which is normal to the nozzle surface in the first printing operation step has a component in a direction toward the second surface (WF2) along the first scanning axis (AS1). a liquid discharge head having a nozzle surface (F) on which a plurality of nozzles which discharge a liquid are provided; and a moving mechanism that changes a position and a pose of the liquid discharge head relative to the workpiece (W), wherein the workpiece (W) has a first surface (WF1) and a second surface (WF2) that forms a corner (WC) bent or curved in a convex shape between the first surface (WF1) and the second surface (WF2), the printing method comprising: a first printing operation step wherein the liquid discharge head performs printing on the first surface (WF1) while the moving mechanism moves the liquid discharge head along a first scanning axis (AS1) with respect to the workpiece (W), characterized in that a first discharge vector (VD1) which is normal to the nozzle surface in the first printing operation step has a component in a direction toward the second surface (WF2) along the first scanning axis (AS1). a first printing operation step wherein the liquid discharge head performs printing on the first surface (WF1) while the moving mechanism moves the liquid discharge head along a first scanning axis (AS1) with respect to the workpiece (W), characterized in that a first discharge vector (VD1) which is normal to the nozzle surface in the first printing operation step has a component in a direction toward the second surface (WF2) along the first scanning axis (AS1).
An anode comprising: a current collector substrate with a surface roughness Rz of greater than 1.5 micrometers; and a film having a thickness of 10 to 80 micrometers and cast over the current collector, wherein the film comprises: a plurality of active material particles, wherein the plurality of active material particles is selected from the group consisting of a silicon-carbon composite material, hard-carbon, graphite, graphene, germanium, titanium oxide, tin, magnesium, antimony, lead, and combinations thereof; and a conductive polymer membrane coating over the active material particles, the conductive polymer membrane coating comprising a thermoplastic polymer treated to become a cyclized, non-plastic ladder compound. a current collector substrate with a surface roughness Rz of greater than 1.5 micrometers; and a film having a thickness of 10 to 80 micrometers and cast over the current collector, wherein the film comprises: a plurality of active material particles, wherein the plurality of active material particles is selected from the group consisting of a silicon-carbon composite material, hard-carbon, graphite, graphene, germanium, titanium oxide, tin, magnesium, antimony, lead, and combinations thereof; and a conductive polymer membrane coating over the active material particles, the conductive polymer membrane coating comprising a thermoplastic polymer treated to become a cyclized, non-plastic ladder compound. a plurality of active material particles, wherein the plurality of active material particles is selected from the group consisting of a silicon-carbon composite material, hard-carbon, graphite, graphene, germanium, titanium oxide, tin, magnesium, antimony, lead, and combinations thereof; and a conductive polymer membrane coating over the active material particles, the conductive polymer membrane coating comprising a thermoplastic polymer treated to become a cyclized, non-plastic ladder compound.
A cardio-pulmonary resuscitation (CPR) device, comprising: a chest compression mechanism structured to administer chest compressions to a chest of a patient, the chest of the patient having a resting chest height; a processor configured to: determine a maximum zero-position of the CPR device; determine a first zero-position of the CPR device for at least one of the chest compressions to be administered to the chest of the patient; determine a first chest compression depth of the chest compression mechanism; detect a change in the resting chest height; in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the compression depth of the CPR device up to a maximum compression depth. a chest compression mechanism structured to administer chest compressions to a chest of a patient, the chest of the patient having a resting chest height; a processor configured to: determine a maximum zero-position of the CPR device; determine a first zero-position of the CPR device for at least one of the chest compressions to be administered to the chest of the patient; determine a first chest compression depth of the chest compression mechanism; detect a change in the resting chest height; in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the compression depth of the CPR device up to a maximum compression depth. determine a maximum zero-position of the CPR device; determine a first zero-position of the CPR device for at least one of the chest compressions to be administered to the chest of the patient; determine a first chest compression depth of the chest compression mechanism; detect a change in the resting chest height; in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the zero-position of the CPR device up to a maximum zero-position for the CPR device and administer chest compressions to the chest of the patient based on the adjusted zero-position; and in response to the detected change in resting chest height while administering chest compressions to the chest of the patient, automatically adjust the compression depth of the CPR device up to a maximum compression depth.
A composition for assembling a synthon, comprising: (a) a 5'-3' exonuclease, wherein the 5'-3' exonuclease has single strand endonuclease activity; (b) a strand-displacing polymerase; and (c) a non-naturally occurring buffering agent; wherein the composition does not comprise a crowding agent and/or a non strand-displacing polymerase. (a) a 5'-3' exonuclease, wherein the 5'-3' exonuclease has single strand endonuclease activity; (b) a strand-displacing polymerase; and (c) a non-naturally occurring buffering agent; wherein the composition does not comprise a crowding agent and/or a non strand-displacing polymerase.
Measuring device for detecting different gases and gas concentrations, comprising a radiation source (S), a measuring channel having an optical path and a gas interaction path, and radiation detectors (D) arranged along the measuring channel , characterized in that the optical path has at least one deflection point , wherein a first narrow bandpass interference filter (F) is arranged at a deflection point and a first radiation detector (D) is arranged immediately downstream of the first narrow bandpass interference filter (F), and wherein the optical path and the gas interaction path in the measuring channel are identical, wherein the optical path has N deflection points and an absorption path length L = L 1 ...+ L N from the radiation source (S) up to the Nth deflection point, wherein N is a natural number greater than 1, wherein an individual absorption path length L 1 , ... L N is provided for each sample gas and different gases and gas concentrations can be detected simultaneously, wherein the narrow bandpass interference filter (F) has an optical axis , wherein the optical path and the optical axis of an N-th narrow bandpass interference filter (F) enclose an angle φ N , wherein the angle φ N has a size in the range greater than 0° to less than 50°, wherein a further narrow bandpass interference filter (F) is arranged at a further deflection point and a further radiation detector (D) is arranged immediately downstream of the further narrow bandpass interference filter (F).
A complex of 7-deacetylforskolin (7-DAFSK) and polyvinylpyrrolidone (PVP).
A ventilation system comprising a controlled mechanical ventilation (CMV) unit, the ventilation system comprising: an electrical junction box for connection to the mains of the CMV unit , the electrical junction box with a plurality of connectors therein to connect the wiring of the mains, the electrical junction box being attachable on an outer face of the CMV unit so that the connectors are inserted into internal connection pins of the CMV , the pins being connected to the electrical/electronic components of the CMV and all the electrical components of the CMV being connected to the mains, wherein the junction box is configured to fit into a cavity (2.1) of the CMV unit which comprises the internal connection pins , for attaching it to the CMV unit , wherein the electrical junction box partially fits into the cavity (2.1) of the CMV unit so that it is manually removable by grasping the part of the junction box protruding from the CMV unit with one's fingers, and wherein the electrical junction box is attached to the CMV by means of a snap-fit. an electrical junction box for connection to the mains of the CMV unit , the electrical junction box with a plurality of connectors therein to connect the wiring of the mains, the electrical junction box being attachable on an outer face of the CMV unit so that the connectors are inserted into internal connection pins of the CMV , the pins being connected to the electrical/electronic components of the CMV and all the electrical components of the CMV being connected to the mains, wherein the junction box is configured to fit into a cavity (2.1) of the CMV unit which comprises the internal connection pins , for attaching it to the CMV unit , wherein the electrical junction box partially fits into the cavity (2.1) of the CMV unit so that it is manually removable by grasping the part of the junction box protruding from the CMV unit with one's fingers, and wherein the electrical junction box is attached to the CMV by means of a snap-fit.
An ophthalmic surgical system for treating an eye of a patient, the system comprising: a body ; a cutting element extending distally from the body including: a sleeve member comprising a port at an end; an inner member disposed within the sleeve member, the inner member being movable axially with respect to the sleeve member; and an actuating element secured to the inner member, the actuating element configured for operation in both a resonant mode and a non-resonant mode; wherein, in operation in the resonant mode, application of a constant supply of pressurized fluid causes reciprocal movement of the inner member, and wherein, in operation in the non-resonant mode, movement of the inner member is in accordance with a pulse of pressurized fluid, wherein the actuating element comprises: a chamber ; a diaphragm movable within the chamber and secured to the inner member ; characterised in that the actuating element further comprises a flow director comprising a slide valve in fluid connection with the chamber, the slide valve being in connection with the inner member such that movement of the inner member switches the slide valve in a delayed manner. a body ; a cutting element extending distally from the body including: a sleeve member comprising a port at an end; an inner member disposed within the sleeve member, the inner member being movable axially with respect to the sleeve member; and a sleeve member comprising a port at an end; an inner member disposed within the sleeve member, the inner member being movable axially with respect to the sleeve member; and an actuating element secured to the inner member, the actuating element configured for operation in both a resonant mode and a non-resonant mode; wherein, in operation in the resonant mode, application of a constant supply of pressurized fluid causes reciprocal movement of the inner member, and wherein, in operation in the non-resonant mode, movement of the inner member is in accordance with a pulse of pressurized fluid, wherein the actuating element comprises: a chamber ; a diaphragm movable within the chamber and secured to the inner member ; characterised in that the actuating element further comprises a flow director comprising a slide valve in fluid connection with the chamber, the slide valve being in connection with the inner member such that movement of the inner member switches the slide valve in a delayed manner. a chamber ; a diaphragm movable within the chamber and secured to the inner member ; characterised in that the actuating element further comprises a flow director comprising a slide valve in fluid connection with the chamber, the slide valve being in connection with the inner member such that movement of the inner member switches the slide valve in a delayed manner.
A casting method of casting a cast-metal object which comprises casting a cast-metal object by using a casting device including a mold structure (15, 5A-5F; 6, 6A-6G) for forming a casting space allowing molten metal be filled in and a runner provided separately from the mold structure (15, 5A-5F; 6, 6A-6G) for supplying molten metal into the casting space in the mold structure (15, 5A-5F; 6, 6A-6G) by being connected to the mold structure (15, 5A-5F; 6, 6A-6G), wherein the mold structure (15, 5A-5F; 6, 6A-6G) is assembled from a plurality of members (52-57), wherein the runner is dividable into a runner upper portion and a runner lower portion , the runner lower portion formed with a groove along which molten metal flows; CHARACTERISED IN THAT : at least a partial member constituting the mold structure (15, 5A-5F; 6, 6A-6G) is made of resin, water glass mixed sand, gypsum or casting ceramic mold material; and wherein the member made of the water glass mixed sand, gypsum or casting ceramic mold material has a through hole for guiding a portion of molten metal moving from the runner into the casting space of the mold structure (15, 5A-5F; 6, 6A-6G), from another position of the runner into the casting space. at least a partial member constituting the mold structure (15, 5A-5F; 6, 6A-6G) is made of resin, water glass mixed sand, gypsum or casting ceramic mold material; and wherein the member made of the water glass mixed sand, gypsum or casting ceramic mold material has a through hole for guiding a portion of molten metal moving from the runner into the casting space of the mold structure (15, 5A-5F; 6, 6A-6G), from another position of the runner into the casting space.
An invasive instrument extending in a longitudinal direction, having a tip section at a distal end, a steering section at a proximal end and a body section between the tip section and the steering section , the invasive instrument comprises steering wires (16(i)) extending from the steering section to the tip section and configured to deflect at least a first portion of the tip section by a longitudinal movement of the one or more steering wires (16(i)), one or more longitudinal actuation elements (608; 826; 934, 962; 2; 5006) provided with at least one component (622; 624; 636; 638; 640; 687; 693; 936, 938, 964, 966; 1042; 1204; 1308, 1310; 1338) configured to transform a longitudinal movement of the one or more longitudinal actuation elements (606; 608; 826; 934, 962; 2; 5006) into a tangential movement of at least one of: a. one or more movable elements such that they operate as a locking element (416(m); 516, 704; 716; 718; 734/736; 746/748; 756/758; 1002; 1107/1108) in order to either freeze a deflected or non-deflected condition of a flexible portion of the invasive instrument or limit deflection of the flexible portion of the invasive instrument, b. at least one of one or more mechanical switches and the one or more steering wires (16(i)), whereby the one or more steering wires (16(i)) are either fixed to a fixed element, coupled to another movable element, limited in their movement, only capable of moving under friction, coupled to one out of different steering units in the steering section , uncoupled from a steering unit in the steering section or released to a free floating condition, or c. one or more switching elements (1201/1208; 1304; 1306; 1336) configured to couple two adjacent movable elements (1214(s); 1316(s)) such that they can move together, the one or more movable elements (416(m); 516, 704; 716; 718; 734/736; 746/748; 756/758; 1002; 1107/1108; 16(i); 1214(s); 1316(s)), the one or more steering wires (16(i)), the one or more switching elements and one or more longitudinal actuation elements (608; 826; 934, 962; 2) being all portions of one or more tubes inserted into one another. a. one or more movable elements such that they operate as a locking element (416(m); 516, 704; 716; 718; 734/736; 746/748; 756/758; 1002; 1107/1108) in order to either freeze a deflected or non-deflected condition of a flexible portion of the invasive instrument or limit deflection of the flexible portion of the invasive instrument, b. at least one of one or more mechanical switches and the one or more steering wires (16(i)), whereby the one or more steering wires (16(i)) are either fixed to a fixed element, coupled to another movable element, limited in their movement, only capable of moving under friction, coupled to one out of different steering units in the steering section , uncoupled from a steering unit in the steering section or released to a free floating condition, or c. one or more switching elements (1201/1208; 1304; 1306; 1336) configured to couple two adjacent movable elements (1214(s); 1316(s)) such that they can move together,
A composition comprising an iNOS (inducible nitric oxide synthase) inhibitor for use in the prophylactic or therapeutic treatment of a thoracic aortic aneurysm (TAA) in a human patient, wherein the iNOS inhibitor is selected from the group consisting of 1400W (N'-[[3-(aminomethyl)phenyl]methyl]ethanimidamide), GW274150 ( -2-amino-4-[2-(1-aminoethylideneamino)ethylsulfanyl]butanoic acid), GW273629 ( -2-amino-3-[2-(1-aminoethylideneamino)ethylsulfonyl]propanoic acid), Aminoguanidine (AG) (2-aminoguanidine), L-NIL ( -2-amino-6-(1-aminoethylideneamino)hexanoic acid), clotrimazole and L-NAME (methyl -2-amino-5-[[amino(nitramido)methylidene]amino]pentanoate), or any pharmaceutically acceptable salts thereof.
Method for producing a parking-deck module for a removable parking deck, wherein a floor element is produced in the form of a reinforced-concrete composite element with two longitudinal sides and with two narrow sides , wherein side parts can be fastened on the narrow sides , and wherein, during the course of the method, a composite steel girder is arranged over a concavely shaped formwork and then is subjected to bending in the direction of the formwork and in accordance with the shape of the formwork , then concrete is poured into the formwork and, once the concrete has hardened, the loading is removed from the composite steel girder.
A light emitting device comprising: a lightguide formed from a film having a thickness not greater than 0.5 millimeters, the lightguide having a lightguide region and an array of coupling lightguides continuous with the lightguide region , wherein each coupling lightguide terminates in an input edge and each coupling lightguide is folded to define a first portion of the coupling lightguide on a first side of the fold and a second portion of the coupling lightguide on an opposing second side of the fold such that the input edges of the array of coupling lightguides form a stack defining a light input surface ; a light source configured to emit light into the light input surface , such that the light propagates within each coupling lightguide to the lightguide region , with light from each coupling lightguide combining with light from one or more other coupling lightguides of the array of coupling lightguides and totally internally reflecting within the lightguide region ; one or more light extraction features operatively coupled to the lightguide and configured to frustrate the totally internally reflected light within the lightguide region such that the light exits the lightguide in a light emitting region defined within the lightguide region ; and a first low contact area cover comprising a surface having a plurality of first surface relief features adjacent to a first region of the lightguide including at least a portion of the array of coupling lightguides with one or more of the plurality of surface relief features contacting the lightguide . a lightguide formed from a film having a thickness not greater than 0.5 millimeters, the lightguide having a lightguide region and an array of coupling lightguides continuous with the lightguide region , wherein each coupling lightguide terminates in an input edge and each coupling lightguide is folded to define a first portion of the coupling lightguide on a first side of the fold and a second portion of the coupling lightguide on an opposing second side of the fold such that the input edges of the array of coupling lightguides form a stack defining a light input surface ; a light source configured to emit light into the light input surface , such that the light propagates within each coupling lightguide to the lightguide region , with light from each coupling lightguide combining with light from one or more other coupling lightguides of the array of coupling lightguides and totally internally reflecting within the lightguide region ; one or more light extraction features operatively coupled to the lightguide and configured to frustrate the totally internally reflected light within the lightguide region such that the light exits the lightguide in a light emitting region defined within the lightguide region ; and a first low contact area cover comprising a surface having a plurality of first surface relief features adjacent to a first region of the lightguide including at least a portion of the array of coupling lightguides with one or more of the plurality of surface relief features contacting the lightguide .