mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting a metal object beneath a surface (12 a) of a human or animal body comprises transmitter means for generating a magnetic field in the vicinity of the metal object, thereby to generate a secondary magnetic field, and detection means for detecting the secondary magnetic field, wherein the detection means include a first gradiometer having first and second gradiometer coils (18 a, 18 b) wound in opposite polarity to one another in series in a figure-of-eight configuration about a clearance region (20; 120) for providing a first output signal representative of a first direction, y, to the metal object, a second gradiometer having first and second gradiometer coils (24 a, 24 b) wound in opposite polarity to one another in series in a figure-of-eight configuration about a clearance region arranged substantially orthogonal to the first gradiometer for providing a second output signal representative of a second direction, x, to the metal object, the second direction being substantially orthogonal to the first direction and in the same plane as the first direction, an outer coil (28 a, 28 b) and an inner coil (30 a, 30 b) arranged to be substantially concentric with one another and each of which is arranged to provide an output signal representative of secondary magnetic field strength in a third direction, z, which is substantially orthogonal to the plane of the first and second directions, and processing means for comparing the output signal generated by the inner coil with the output signal generated by the outer coil so as to provide an indication of depth, d, of the metal object beneath the surface, the inner and outer coils (28 a, 28 b, 30 a, 30 b) and the clearance regions of the first and second gradiometers (16, 22) being arranged about a common axis in the third direction to define an access channel within which a device is received, in use, for marking the surface of the body, the apparatus being capable, in use, of simultaneously indicating the depth of the metal object beneath the surface (12 a) of the body and marking the surface (12 a) there-above.
PX-478 (S-2-amino-3-[4'-N,N,-bis(chloroethyl)amino]phenyl propionic acid N-oxide dihydrochloride) for use in a method of treating heterotopic ossification in a subject in need thereof, the method comprising administering PX-478 to the subject.
A device configured to create a plurality of at least 100 subsurface disruptions per mm 3 in a selected layer of material, wherein the subsurface disruptions have depths less than about 0.5 millimeter, the device comprising: an ultrashort pulse laser beam generator comprising a scanner that produces a plurality of at least 100 beams in an x,y plane, wherein each of the at least 100 beams has a pulse duration of 10 nanoseconds or less and an energy per pulse of between 0.01 nJ and 10 Joule; an optic configured to focus the at least 100 beams in the selected layer of material at the depths of the subsurface disruptions; a detector element that detects characteristics of the material and provides detected signals; and a processor configured to receive the detected signals from the detector element and cooperate with the laser beam generator and the optic to create and focus the at least 100 beams with pulse durations and energy per pulse levels and focus depths so that the at least 100 subsurface disruptions are 20 micrometers or less in diameter, and the material above the selected layer is free of modification to a depth of about 5 micrometers or more from the surface. an ultrashort pulse laser beam generator comprising a scanner that produces a plurality of at least 100 beams in an x,y plane, wherein each of the at least 100 beams has a pulse duration of 10 nanoseconds or less and an energy per pulse of between 0.01 nJ and 10 Joule; an optic configured to focus the at least 100 beams in the selected layer of material at the depths of the subsurface disruptions; a detector element that detects characteristics of the material and provides detected signals; and a processor configured to receive the detected signals from the detector element and cooperate with the laser beam generator and the optic to create and focus the at least 100 beams with pulse durations and energy per pulse levels and focus depths so that the at least 100 subsurface disruptions are 20 micrometers or less in diameter, and the material above the selected layer is free of modification to a depth of about 5 micrometers or more from the surface.
A device for manufacturing a supporting structure for a passenger transport system, wherein the supporting structure has a frame-work with load-bearing frame-work components interconnected to a lower part, a middle part and an upper part, respectively, wherein the device has a sequential arrangement of assembly stations (101, 102, 103), semi- or fully automatically operating and cooperating with each other, wherein the sequential arrangement comprises: a first assembly station, having - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components, each to the side parts (303R, 303L) of the lower part, the side parts (305R, 305L) of the middle part, and the side parts (301R, 301L) of the upper part of the framework; and a second assembly station for positionally welding-together the side parts (303R, 303L) of the lower part, the side parts (305R, 305L) of the middle part and the side parts (301R, 301L) of the upper part, welded-together in the first assembly station, with other frame-work components (61A, 61B, 61C). a first assembly station, having - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components, each to the side parts (303R, 303L) of the lower part, the side parts (305R, 305L) of the middle part, and the side parts (301R, 301L) of the upper part of the framework; and - at least one holding device for holding frame-work components and - at least one welding robot for welding-together the frame-work components, each to the side parts (303R, 303L) of the lower part, the side parts (305R, 305L) of the middle part, and the side parts (301R, 301L) of the upper part of the framework; and a second assembly station for positionally welding-together the side parts (303R, 303L) of the lower part, the side parts (305R, 305L) of the middle part and the side parts (301R, 301L) of the upper part, welded-together in the first assembly station, with other frame-work components (61A, 61B, 61C).
A temperature stabilized device, characterized in that it comprises: a substrate having a first surface; at least one component mounted on the first surface of the substrate; a first conformal layer comprising a thermoelectric material, the first conformal layer over the at least one component; and a first temperature control circuit electrically coupled to the first conformal layer, the first temperature control circuit configured to control a current through the first conformal layer; wherein the current through the first conformal layer is controlled to maintain the at least one component at a target operating temperature. a substrate having a first surface; at least one component mounted on the first surface of the substrate; a first conformal layer comprising a thermoelectric material, the first conformal layer over the at least one component; and a first temperature control circuit electrically coupled to the first conformal layer, the first temperature control circuit configured to control a current through the first conformal layer; wherein the current through the first conformal layer is controlled to maintain the at least one component at a target operating temperature.
A motor comprising; a rotational shaft defining a vertical direction; a rotor disposed on an outside of the rotational shaft; a stator disposed on an outside of the rotor, the stator including a coil; and a router disposed above the stator, characterised in that the router guides the coil, wherein the router comprises a body in an annular shape including a first coil guide, and a guide part disposed to protrude from the body and comprising a second coil guide, wherein the first coil guide is concavely disposed in the upper face of the body, wherein the second coil guide is concavely disposed in the inner circumferential surface of the guide part, wherein the first coil guide and the second coil guide are connected to each other. a rotational shaft defining a vertical direction; a rotor disposed on an outside of the rotational shaft; a stator disposed on an outside of the rotor, the stator including a coil; and a router disposed above the stator, characterised in that the router guides the coil, wherein the router comprises a body in an annular shape including a first coil guide, and a guide part disposed to protrude from the body and comprising a second coil guide, wherein the first coil guide is concavely disposed in the upper face of the body, wherein the second coil guide is concavely disposed in the inner circumferential surface of the guide part, wherein the first coil guide and the second coil guide are connected to each other.
A method of controlling a machine comprising; obtaining one or more images of an object, at least part of which comprises a patterned marker having a detectable pattern (9, 11) arranged thereon; calculating the position and orientation of the object in space from the appearance of the patterned marker in the one or more images; and changing a position and orientation of the machine in accordance with the calculated position and orientation of the object in space; wherein calculating the position and orientation of the object in space comprises: generating a projected image of the patterned marker according to a mathematical model describing the patterned marker, imaging means and light rays travelling from the patterned marker to the imaging means; and matching the projected image of the patterned marker to the patterned marker in the one or more images of the object. obtaining one or more images of an object, at least part of which comprises a patterned marker having a detectable pattern (9, 11) arranged thereon; calculating the position and orientation of the object in space from the appearance of the patterned marker in the one or more images; and changing a position and orientation of the machine in accordance with the calculated position and orientation of the object in space; wherein calculating the position and orientation of the object in space comprises: generating a projected image of the patterned marker according to a mathematical model describing the patterned marker, imaging means and light rays travelling from the patterned marker to the imaging means; and matching the projected image of the patterned marker to the patterned marker in the one or more images of the object. generating a projected image of the patterned marker according to a mathematical model describing the patterned marker, imaging means and light rays travelling from the patterned marker to the imaging means; and matching the projected image of the patterned marker to the patterned marker in the one or more images of the object.
A display apparatus, comprising: a first area comprising at least one opening; a second area disposed around the first area, wherein the second area comprises a plurality of display elements; a third area disposed between the first area and the second area; a thin film encapsulation layer covering the plurality of display elements; a planarization layer disposed in the third area, wherein a first end (720E1) of the planarization layer is positioned over the thin film encapsulation layer; a first insulating layer disposed over the thin film encapsulation layer; and a second insulating layer disposed over the planarization layer, wherein the second insulating layer comprises a first through hole overlapping the planarization layer. a first area comprising at least one opening; a second area disposed around the first area, wherein the second area comprises a plurality of display elements; a third area disposed between the first area and the second area; a thin film encapsulation layer covering the plurality of display elements; a planarization layer disposed in the third area, wherein a first end (720E1) of the planarization layer is positioned over the thin film encapsulation layer; a first insulating layer disposed over the thin film encapsulation layer; and a second insulating layer disposed over the planarization layer, wherein the second insulating layer comprises a first through hole overlapping the planarization layer.
A ligator system for the application of an expanded ligature ring to a anatomical region of a living organism to be ligated by the ring in its relaxed state, which comprises a ligator with a holding tube and an advancing tube, wherein the holding tube is able to accommodate in its interior the anatomical region respectively to be ligated and to keep with its outer face several ligature rings, which are disposed one behind the other, stretched wide, wherein the ligator system additionally comprises at least two ligature rings, characterized in that the ligator system further comprises at least one intermediate ring, which is made from a different material than the ligature rings and is disposed on the holding tube between two ligature rings and keeps the two ligature rings at a distance from each other in the direction of the longitudinal axis of the holding tube, wherein the two ligature rings and the intermediate ring located between them are disposed on the holding tube of the ligator in such a way that, by means of the advancing tube, they can be pushed, together, along the holding tube in the direction towards the distal end thereof in order to fire one of said ligature rings.
A nanowire tunnel Field Effect Transistor (TFET) semiconductor device comprising at least one elongate monocrystalline nanostructure (NW-TFET), said elongate monocrystalline nanostructure being a nanowire structure and comprising a first main electrode region (3; 22) made of first semiconductor material highly doped with dopants of a first conductivity type, a second main electrode region (9; 25) made of a second material different from the first semiconductor material and highly doped with dopants of a second conductivity type different from the first conductivity type, and a channel region (4; 21) in between the first main electrode region (3; 22) and the second main electrode region (9; 25), the channel region (4; 21) being of the first semiconductor material and being lowly doped, whereby the doping level of the channel region (4, 21) is in the range of undoped up to 10 16 /cc, and wherein the second main electrode region is a hetero-section of said nanowire structure which interfaces said channel region by means of an interface, the material of the heterosection and / or the cross-section of the nanowire being such that said interface is substantially defect-free; the tunnel Field Effect Transistor furthermore comprising a control electrode structure (8, 7; 23, 24) on the channel region (4; 21).
A deicing composition comprising (i) a deicing agent selected from the group consisting of sodium chloride, calcium magnesium acetate, calcium chloride, magnesium chloride, potassium chloride, potassium acetate, sodium acetate, sodium formate, and potassium formate, (ii) a native protein, and (iii) molasses wherein the deicing agent is present in an amount of at least 5% by weight based on the total weight of the deicing composition and with the proviso that components (ii) and (iii) are not the same. (i) a deicing agent selected from the group consisting of sodium chloride, calcium magnesium acetate, calcium chloride, magnesium chloride, potassium chloride, potassium acetate, sodium acetate, sodium formate, and potassium formate, (ii) a native protein, and (iii) molasses
A process for washing a substrate comprising a. providing a detergent composition including a surfactant and an antifoam, wherein the antifoam comprises (a) a hydrophobic fluid organopolysiloxane selected from a hydrophobic organopolysiloxane fluid containing carboxyalkyl groups esterified by an alkyl group having 8 to 18 carbon atoms; said hydrophobic fluid organopolysiloxane having a surface tension of at least 27 mN/m and less than 40 mN/m when measured by drop the shape method at 25°C, and (b) a finely divided solid at 100°C hydrophobic filler dispersed in the hydrophobic fluid; b. washing the substrate in an aqueous medium with the detergent composition such that the detergent is applied to the substrate during the washing step, wherein the concentration of the surfactant in the aqueous medium during the washing step is above a critical micelle concentration whereby the antifoam does not affect foaming during the washing step; and c. rinsing the substrate with the applied detergent composition with water, wherein the concentration of the surfactant in the rinse water from the rinsing step is below the critical micelle concentration whereby foaming during the rinsing step is inhibited, and wherein the washing step and the rinsing step occur in hand washing applications. a. providing a detergent composition including a surfactant and an antifoam, wherein the antifoam comprises (a) a hydrophobic fluid organopolysiloxane selected from a hydrophobic organopolysiloxane fluid containing carboxyalkyl groups esterified by an alkyl group having 8 to 18 carbon atoms; said hydrophobic fluid organopolysiloxane having a surface tension of at least 27 mN/m and less than 40 mN/m when measured by drop the shape method at 25°C, and (b) a finely divided solid at 100°C hydrophobic filler dispersed in the hydrophobic fluid; b. washing the substrate in an aqueous medium with the detergent composition such that the detergent is applied to the substrate during the washing step, wherein the concentration of the surfactant in the aqueous medium during the washing step is above a critical micelle concentration whereby the antifoam does not affect foaming during the washing step; and c. rinsing the substrate with the applied detergent composition with water, wherein the concentration of the surfactant in the rinse water from the rinsing step is below the critical micelle concentration whereby foaming during the rinsing step is inhibited, and
Machine for harvesting of asparagus comprising a movable frame with a longitudinal axis, at least two asparagus cutting modules movably connected to the frame, preferably 3-20 cutting modules, characterized in the machine is for continuous harvesting, a cutting module guidance, wherein the cutting module guidance is adapted to move at a speed substantially equal to the machine speed but of opposite direction, a feedback loop for spatially cycling each cutting module from a back side to a front side of the frame and from a front side to a back side of the frame, and a driving system cutting modules. a movable frame with a longitudinal axis, at least two asparagus cutting modules movably connected to the frame, preferably 3-20 cutting modules, characterized in the machine is for continuous harvesting, a cutting module guidance, wherein the cutting module guidance is adapted to move at a speed substantially equal to the machine speed but of opposite direction, a feedback loop for spatially cycling each cutting module from a back side to a front side of the frame and from a front side to a back side of the frame, and a driving system cutting modules.
A waterproof assembly, comprising a shell and a waterproof plug, wherein the shell is provided with an opening, a bottom of the opening is recessed inwardly to form an accommodation part, the bottom of the opening is also provided with an elastic film, and the elastic film is provided with a hole; the waterproof plug includes a sealing part for being inserted into the accommodation part, a diameter of the sealing part is greater than a diameter of the hole; when the waterproof plug is inserted into the opening, the sealing part is located inside the accommodation part, and the elastic film adheres to an outer wall of the sealing part, characterized in that a side wall of the accommodation part is provided with a limit part, and when the waterproof plug is inserted into the accommodation part, the elastic film adheres to the limit part.
Fuel injector with an injector housing in which there is formed a nozzle chamber which can be supplied with pressurized fuel via a feed line formed in the injector housing, the injector housing including a nozzle body, a throttle plate, a valve plate and a retaining body, which are braced together axially by means of a nozzle clamping nut, and with a longitudinally movable nozzle needle which opens or closes at least one spray hole and which is arranged in the nozzle chamber, and with a force measuring element for at least indirectly detecting a pressure in a pressure chamber formed in the injector housing, the pressure chamber being hydraulically connectable to the feed line, the force measuring element being arranged in a measuring chamber formed in the injector housing, the measuring chamber being separated from the pressure chamber by a diaphragm-like intermediate wall, the force measuring element supporting the intermediate wall, the force measuring element being preloaded against the intermediate wall, and the longitudinal movement of the nozzle needle being controlled by the pressure in a control chamber, and the pressure chamber being connected to the control chamber via a tap bore, characterized in that the force measuring element is preloaded by means of an oversize inside the injector housing, and the pressure chamber and the measuring chamber separated therefrom by a diaphragm-like intermediate wall are formed in the valve plate, and the tap bore is formed in the throttle plate.
A handheld portable device (10, 20) for sanitizing a surface or air surrounding a surface, the handheld portable device (10, 20) comprising: a body (12, 22) that comprises a user input (14, 38); a far-UVC illumination source disposed at the body; a power source for providing power to the far-UVC illumination source; wherein, responsive to actuation of the user input by a user of the handheld portable device (10, 20), the far-UVC illumination source is powered and emits far-UVC illumination to sanitize the surface or the air surrounding the surface of pathogens, characterized in that the device further comprises an indicator indicating when the handheld portable device (10, 20) is an optimal distance from the surface for sanitizing the surface, and wherein the far-UVC illumination source comprises a filter that filters illumination having a wavelength of greater than 230 nm. a body (12, 22) that comprises a user input (14, 38); a far-UVC illumination source disposed at the body; a power source for providing power to the far-UVC illumination source; wherein, responsive to actuation of the user input by a user of the handheld portable device (10, 20), the far-UVC illumination source is powered and emits far-UVC illumination to sanitize the surface or the air surrounding the surface of pathogens, characterized in that the device further comprises an indicator indicating when the handheld portable device (10, 20) is an optimal distance from the surface for sanitizing the surface, and wherein the far-UVC illumination source comprises a filter that filters illumination having a wavelength of greater than 230 nm.