mhurhangee/ep-ind-claims huggingface dataset:
A method of additive manufacturing a porous inorganic part comprising, (i) providing a mixture comprising an organic reactive material and inorganic particulates, (ii) dispensing said mixture through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the mixture on the base, (iv) repeating steps (ii) and (iii) to form a successive layer of the mixture adhered on the initial layer to form an additive manufactured part, (v) allowing the organic reactive material to react forming a thermoset material that forms carbon upon heating and (vi) heating the additive manufactured part in an atmosphere to a temperature where the thermoset material decomposes and forms a carbon phase that binds the inorganic particulates to form the porous inorganic part. (i) providing a mixture comprising an organic reactive material and inorganic particulates, (ii) dispensing said mixture through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the mixture so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the mixture on the base, (iv) repeating steps (ii) and (iii) to form a successive layer of the mixture adhered on the initial layer to form an additive manufactured part, (v) allowing the organic reactive material to react forming a thermoset material that forms carbon upon heating and (vi) heating the additive manufactured part in an atmosphere to a temperature where the thermoset material decomposes and forms a carbon phase that binds the inorganic particulates to form the porous inorganic part.
A computer implemented method for aligning a digital 3D model of teeth with a desired axis, comprising steps of: receiving a digital 3D model of teeth represented by a 3D mesh in random alignment; computing a grid of vectors aligned with a desired axis within a 3D coordinate system; projecting the vectors through the mesh to count a number of intersections of the vectors with faces of the mesh; computing a cost function for the mesh based upon the number of intersections; and rotating the mesh and repeating the projecting and the computing the cost function steps until the cost function is maximized to align the mesh with the desired axis. receiving a digital 3D model of teeth represented by a 3D mesh in random alignment; computing a grid of vectors aligned with a desired axis within a 3D coordinate system; projecting the vectors through the mesh to count a number of intersections of the vectors with faces of the mesh; computing a cost function for the mesh based upon the number of intersections; and rotating the mesh and repeating the projecting and the computing the cost function steps until the cost function is maximized to align the mesh with the desired axis.
A method for portion-packing of an oral pouched snuff product (1, 1'), said method comprises a) supplying and advancing a tubular web (33, 33', 33a", 33b") of packaging material enveloping a continuous feed (23, 23', 23a", 23b") of filling material in a direction of travel, b) forming transverse seals in said tubular web (33, 33', 33a", 33b") across said continuous feed (23, 23', 23a", 23b") of filling material by means of ultrasonic welding with an ultrasonic welding unit (37, 37', 37", 201) being configured to perform simultaneous transverse welding and cutting of said tubular web (33, 33', 33a", 33b"), said transverse seals extending in a transverse direction being perpendicular to said direction of travel, c) cutting said tubular web (33, 33', 33a", 33b") by means of a cutting edge (67, 215) comprised in said welding unit (37, 37', 37", 201), characterized in that said cutting of step c) is performed in a welded area of said transverse seal, step c) is performed while performing step b), and said welding unit (37, 37', 37", 201) comprises a single operation surface (59, 211) performing said transverse welding and cutting. a) supplying and advancing a tubular web (33, 33', 33a", 33b") of packaging material enveloping a continuous feed (23, 23', 23a", 23b") of filling material in a direction of travel, b) forming transverse seals in said tubular web (33, 33', 33a", 33b") across said continuous feed (23, 23', 23a", 23b") of filling material by means of ultrasonic welding with an ultrasonic welding unit (37, 37', 37", 201) being configured to perform simultaneous transverse welding and cutting of said tubular web (33, 33', 33a", 33b"), said transverse seals extending in a transverse direction being perpendicular to said direction of travel, c) cutting said tubular web (33, 33', 33a", 33b") by means of a cutting edge (67, 215) comprised in said welding unit (37, 37', 37", 201),
A method of adjusting an electron microscope having an electron beam source for producing an electron beam, an electron beam detecting portion for detecting a part of the electron beam, an image detecting portion for detecting a signal produced in response to impingement of the electron beam on a sample, and a noise canceling portion for subtracting an offset signal from an output signal from the image detecting portion and dividing the resulting difference by an output signal from the electron beam detecting portion, said method comprising the steps of: measuring the output signal from the image detecting portion at given timing while blocking the signal obtained in response to impingement of the electron beam on the sample from entering the image detecting portion; calculating said offset signal based on the measured output signal from the image detecting portion; and setting the calculated offset signal into the noise canceling portion. measuring the output signal from the image detecting portion at given timing while blocking the signal obtained in response to impingement of the electron beam on the sample from entering the image detecting portion; calculating said offset signal based on the measured output signal from the image detecting portion; and setting the calculated offset signal into the noise canceling portion.
An aluminium alloy finstock consisting of the following composition in weight %: Fe 0.8-1.25; Si 0.8-1.25; Mn 0.7-1.5; Cu 0.05-0.5; Zn up to 2.5; other elements less than or equal to 0.05 each and less than or equal to 0.15 in total; and balance aluminium. Fe 0.8-1.25; Si 0.8-1.25; Mn 0.7-1.5; Cu 0.05-0.5; Zn up to 2.5; other elements less than or equal to 0.05 each and less than or equal to 0.15 in total; and balance aluminium.
A control device of an engine, wherein the engine is a multi-cylinder engine in which a fuel injection valve is provided in each of a plurality of cylinders, and wherein a minimum value of an injection pulse width of the fuel injection valve is limited so as to be more than a predetermined value when variation in an air-fuel ratio between the plurality of cylinders is detected during operation of the multi-cylinder engine, characterized in that a static flow characteristic change and a dynamic flow characteristic change of the fuel injection valve of each cylinder are detected based on the air-fuel ratio of each cylinder, and the predetermined value is changed based on the static flow characteristic change and the dynamic flow characteristic change of the fuel injection valve of each cylinder.
A method for forming an introducer sheath, the method comprising: a) providing a first lubricious polymeric tube comprising a sheath extending from a sheath proximal end portion to a sheath distal end portion with an intermediate portion therebetween, the sheath having a first passage therethrough; b) providing a handle assembly of a second lubricious polymeric material, the handle assembly comprising a second passage defined by the handle assembly's inner diameter; c) mechanically surface treating at least one of the sheath proximal end portion and the inner diameter of the handle assembly, thereby forming an interface at the mechanical surface treatment; and d) bonding the second polymeric material of the handle assembly to the first polymeric tube comprising the sheath, thereby forming an airtight seal between the inner diameter of the handle assembly and the sheath proximal end portion at the mechanically surface treated interface with the first and second passages being coaxial with each other. a) providing a first lubricious polymeric tube comprising a sheath extending from a sheath proximal end portion to a sheath distal end portion with an intermediate portion therebetween, the sheath having a first passage therethrough; b) providing a handle assembly of a second lubricious polymeric material, the handle assembly comprising a second passage defined by the handle assembly's inner diameter; c) mechanically surface treating at least one of the sheath proximal end portion and the inner diameter of the handle assembly, thereby forming an interface at the mechanical surface treatment; and d) bonding the second polymeric material of the handle assembly to the first polymeric tube comprising the sheath, thereby forming an airtight seal between the inner diameter of the handle assembly and the sheath proximal end portion at the mechanically surface treated interface with the first and second passages being coaxial with each other.
A sensing system for wireless and passive monitoring of strain during a manufacturing process that depends on force to apply the energy into the manufacturing process, the sensing system comprising: at least one surface acoustic wave, SAW, sensor (530, 9050) for detecting strain, the at least one SAW sensor (530, 9050) being positioned in a force path located on or in the structure of an object under test; and at least one interrogation antenna configured to move together with the object under test for providing an interrogation signal and for receiving a response signal from at least one transceiving antenna arrangement (540, 9040), wherein the least one transceiving antenna arrangement (540, 9040) is arranged for wireless communication with the at least one interrogation antenna, the at least one transceiving antenna arrangement being connectable to the at least one SAW sensor (530, 9050), wherein the at least one SAW sensor (530, 9050) and the at least one transceiving antenna arrangement are arranged to receive energy from the interrogation signal and output a strain response signal detected by the at least one SAW sensor in response to the interrogation signal, characterized in that the at least one surface acoustic wave, SAW, sensor (530, 9050) and the at least one transceiving antenna arrangement (540, 9040) being connectable to the at least one SAW sensor (530, 9050), are contained within a single protective enclosure (520, 720). at least one surface acoustic wave, SAW, sensor (530, 9050) for detecting strain, the at least one SAW sensor (530, 9050) being positioned in a force path located on or in the structure of an object under test; and at least one interrogation antenna configured to move together with the object under test for providing an interrogation signal and for receiving a response signal from at least one transceiving antenna arrangement (540, 9040), wherein the least one transceiving antenna arrangement (540, 9040) is arranged for wireless communication with the at least one interrogation antenna, the at least one transceiving antenna arrangement being connectable to the at least one SAW sensor (530, 9050), wherein the at least one SAW sensor (530, 9050) and the at least one transceiving antenna arrangement are arranged to receive energy from the interrogation signal and output a strain response signal detected by the at least one SAW sensor in response to the interrogation signal, characterized in that the at least one surface acoustic wave, SAW, sensor (530, 9050) and the at least one transceiving antenna arrangement (540, 9040) being connectable to the at least one SAW sensor (530, 9050), are contained within a single protective enclosure (520, 720).
A moving head lighting unit comprising a head movable in relation to a yoke which yoke is moved in relation to a base, said moving head lighting unit comprising at least one light source, which light source generates a beam of light, which beam of light is passing through a lens system, which moving head lighting unit comprises a number of motors or actuators (26,28,58,60,62,64,66,68,70) connected to a set of drivers (22,24,44,46,48,50,52,54,56), and where a computer system is communicating through a communication bus (12,14,30,32,34,36) connected to at least the set of drivers (22,24,44,46,48,50,52,54,56), characterized in that the set of drivers (22,24,44,46,48,50,52,54,56) are placed in said head and physically close to the set of motors or actuators (58,60,62,64,66,68,70) related to that specific set of drivers (22,24,44,46,48,50,52,54,56), where a specific driver (22,24,44,46,48,50,52,54,56) is allocated to each motor (26,28,58,60,62,64,66,68,70), which computer system is placed in said yoke or said base in a distance to the set of drivers (22,24,44,46,48,50,52,54,56), where communication primarily from the computer system to the set of drivers (22,24,44,46,48,50,52,54,56) is performed over a data bus (12,14,16,18,20,30,32,34,36,38,40,42) by a Controller Area Network bus protocol.
A luminaire with • an elongated carrier element, • at least one lighting module, which can be detachably secured to the carrier element, as well as • means for supplying power to the lighting module, which means comprise contacts, which are arranged on the carrier element or on one of the device carriers held by the carrier element, wherein at least a part of the contacts is formed by spring contacts, and wherein the lighting module has counter contacts on a bottom surface facing the carrier element for interacting with the spring contacts, characterized in that the lighting module has two groups of counter contacts, which are arranged in such a manner that the lighting module can contact the spring contacts in two positions rotated by 180°. • an elongated carrier element, • at least one lighting module, which can be detachably secured to the carrier element, as well as • means for supplying power to the lighting module, which means comprise contacts, which are arranged on the carrier element or on one of the device carriers held by the carrier element,
A full-face mask for non-invasive respiratory therapy for patients, which comprises: - a shell provided with a closed loop perimeter edge supporting an annular seal adapted to come into forced and fluid-tight contact with an area of the patient's face and surround the patient's mouth, nose and eyes; - intake means of a breathable gas placed on the shell for the intake of breathable gas into a volume contained between the shell and the patient's face; - outflow means of gases expired by the patient for the exit from the volume of the gases expired by the patient; and - an annular support frame; - wherein the annular seal is adapted to be compressed, in use, between the patient's face and the support frame; - wherein the support frame in use is removably associated with the shell in proximity to the perimeter edge thereof, and - wherein the support frame is configured to surround the patient's mouth, nose and eyes and comprises at least one fixing point for the fixing of the support frame to a neck strap. - a shell provided with a closed loop perimeter edge supporting an annular seal adapted to come into forced and fluid-tight contact with an area of the patient's face and surround the patient's mouth, nose and eyes; - intake means of a breathable gas placed on the shell for the intake of breathable gas into a volume contained between the shell and the patient's face; - outflow means of gases expired by the patient for the exit from the volume of the gases expired by the patient; and - an annular support frame; - wherein the annular seal is adapted to be compressed, in use, between the patient's face and the support frame; - wherein the support frame in use is removably associated with the shell in proximity to the perimeter edge thereof, and - wherein the support frame is configured to surround the patient's mouth, nose and eyes and comprises at least one fixing point for the fixing of the support frame to a neck strap.
Wind turbine having a fixed portion and a rotating portion, wherein a door is arranged between the fixed portion and the rotating portion of the wind turbine, characterised in that the wind turbine has a device for controlling the locking of the door, wherein means for fixing or securing the rotating portion are constructed and the door has between the rotating portion and the fixed portion of the wind turbine a lock (11, 17), which enables unlocking and where applicable then opening of the door when the means for fixing or securing have secured or fixed the rotating portion of the wind turbine.
A surgical cutting tool for keyhole surgery, the tool comprising: a handle at a proximal end of the tool; an elongate member extending from the handle to a distal end of the tool; and a saw at the distal end of the tool, the saw being supported by the elongate member; wherein the saw includes an oscillating saw blade that is oscillated by energy transferred along the elongate member via a rotating shaft, with the oscillating movement of the saw blade being generated via an offset pin at the end of the shaft; wherein the tool is arranged for insertion of the saw into the body during keyhole surgery; and wherein the saw is able to cut bone when pressed against the bone. a handle at a proximal end of the tool; an elongate member extending from the handle to a distal end of the tool; and a saw at the distal end of the tool, the saw being supported by the elongate member; wherein the saw includes an oscillating saw blade that is oscillated by energy transferred along the elongate member via a rotating shaft, with the oscillating movement of the saw blade being generated via an offset pin at the end of the shaft; wherein the tool is arranged for insertion of the saw into the body during keyhole surgery; and wherein the saw is able to cut bone when pressed against the bone.
A heat exchanger core assembly comprising: a frame assembly; a plurality of core bundles positioned within the frame assembly, each core bundle including at least one row of tubing defining at least one end of the core bundle, an edge seal gasket to seal the core bundle from an adjacently placed core bundle, and an indoor face seal gasket to seal the at least one end with respect to the frame assembly, wherein the at least one row of tubing defines a first end and a second end, each of the first end and the second end having the edge seal gasket and the indoor face seal gasket, and wherein the rows of the core bundles are offset from one another; and a center wall configured to be positioned lengthwise between two adjacently placed core bundles, wherein the center wall includes at least one inner panel and at least one hanging bracket provided along a length of the at least one inner panel, the at least one hanging bracket being configured to hang on a core of a core bundle to support the center wall. a frame assembly; a plurality of core bundles positioned within the frame assembly, each core bundle including at least one row of tubing defining at least one end of the core bundle, an edge seal gasket to seal the core bundle from an adjacently placed core bundle, and an indoor face seal gasket to seal the at least one end with respect to the frame assembly, wherein the at least one row of tubing defines a first end and a second end, each of the first end and the second end having the edge seal gasket and the indoor face seal gasket, and wherein the rows of the core bundles are offset from one another; and a plurality of core bundles positioned within the frame assembly, each core bundle including at least one row of tubing defining at least one end of the core bundle, an edge seal gasket to seal the core bundle from an adjacently placed core bundle, and an indoor face seal gasket to seal the at least one end with respect to the frame assembly, wherein the at least one row of tubing defines a first end and a second end, each of the first end and the second end having the edge seal gasket and the indoor face seal gasket, and wherein the rows of the core bundles are offset from one another; and a center wall configured to be positioned lengthwise between two adjacently placed core bundles, wherein the center wall includes at least one inner panel and at least one hanging bracket provided along a length of the at least one inner panel, the at least one hanging bracket being configured to hang on a core of a core bundle to support the center wall.
Robot system with a robot manipulator and with a control unit for the robot manipulator and with a control unit, wherein the robot manipulator comprises a plurality of members connected by joints with at least partially redundant degrees of freedom in such a way that at least a subset of the members of the robot manipulator can be moveable within a zero space without changing a position and/or orientation of a distal end of the robot manipulator, wherein the control unit is designed to detect an input from a user regarding at least one selected direction of a force and/or a torque at the distal end of the robot manipulator and to transmit the detected input to the control unit, characterized in that the control unit is designed to determine components of a transposed element of a Jacobian matrix belonging to the respective selected direction for a given position and/or orientation of the distal end of the robot manipulator within the zero space in such a way that a first metric based on the components satisfies one of the following criteria: not equal to zero, greater than a predetermined limit value as a maximum; and the control unit is designed to control the robot manipulator to move the subset of members within the zero space to assume a pose in accordance with the determined components of the transposed element of the Jacobian matrix. the control unit is designed to determine components of a transposed element of a Jacobian matrix belonging to the respective selected direction for a given position and/or orientation of the distal end of the robot manipulator within the zero space in such a way that a first metric based on the components satisfies one of the following criteria: not equal to zero, greater than a predetermined limit value as a maximum; and the control unit is designed to control the robot manipulator to move the subset of members within the zero space to assume a pose in accordance with the determined components of the transposed element of the Jacobian matrix.