mhurhangee/ep-ind-claims huggingface dataset:
A transcatheter valve prosthesis, the prosthesis comprising: a tubular fabric body formed from a synthetic material, the tubular fabric body having opposing first and second end portions (1002A, 1002C) and an intermediate portion extending between the first and second end portions (1002A,1002C); a first tubular scaffold attached to the tubular fabric body along the first end portion thereof; a second tubular scaffold attached to the tubular fabric body along the second end portion thereof, wherein the first and second tubular scaffolds (1110, 1120) are independent from each other; and a prosthetic valve component disposed within and secured to the intermediate portion of the tubular fabric body, wherein the intermediate portion of the tubular fabric body is unsupported such that neither of the first or second tubular scaffolds (1110, 1120) surround the intermediate portion of the tubular fabric body, and wherein the prosthesis has a compressed configuration for percutaneous delivery within a vasculature and an expanded configuration for deployment within a native valve characterized in that the prosthetic valve component includes at least two leaflets and the prosthesis further includes at least two reinforcement members that are attached to the intermediate portion of the tubular fabric body, the at least two reinforcement members being aligned with commissures of the at least two leaflets of the prosthetic valve component. a tubular fabric body formed from a synthetic material, the tubular fabric body having opposing first and second end portions (1002A, 1002C) and an intermediate portion extending between the first and second end portions (1002A,1002C); a first tubular scaffold attached to the tubular fabric body along the first end portion thereof; a second tubular scaffold attached to the tubular fabric body along the second end portion thereof, wherein the first and second tubular scaffolds (1110, 1120) are independent from each other; and a prosthetic valve component disposed within and secured to the intermediate portion of the tubular fabric body, wherein the intermediate portion of the tubular fabric body is unsupported such that neither of the first or second tubular scaffolds (1110, 1120) surround the intermediate portion of the tubular fabric body, and wherein the prosthesis has a compressed configuration for percutaneous delivery within a vasculature and an expanded configuration for deployment within a native valve characterized in that the prosthetic valve component includes at least two leaflets and the prosthesis further includes at least two reinforcement members that are attached to the intermediate portion of the tubular fabric body, the at least two reinforcement members being aligned with commissures of the at least two leaflets of the prosthetic valve component.
Component for warm air distribution for a recreational vehicle, in particular a motorhome or a caravan, with at least one warm air inlet and a first warm air outlet, wherein at least one second warm air outlet is provided, wherein, in the assembled state, warm air supplied via the warm air inlet can be guided through a hot air duct from the warm air inlet to the first warm air outlet and to the second warm air outlet, and wherein, in the assembled state, the first warm air outlet is arranged in the area of a first vehicle side and the second warm air outlet is arranged in the area of a second vehicle side opposite the first vehicle side, characterised in that at least one further hot air duct is provided, in that a further warm air inlet is provided and in that the warm air inlet and the further warm air inlet are arranged next to one another, in that at least one further warm air outlet is provided, which, in the mounted state, is arranged in the area of the second vehicle side, and in that, in the mounted state, warm air supplied via the further warm air inlet can be guided through the further hot air duct from the further warm air inlet to the further warm air outlet. wherein at least one second warm air outlet is provided, wherein, in the assembled state, warm air supplied via the warm air inlet can be guided through a hot air duct from the warm air inlet to the first warm air outlet and to the second warm air outlet, and wherein, in the assembled state, the first warm air outlet is arranged in the area of a first vehicle side and the second warm air outlet is arranged in the area of a second vehicle side opposite the first vehicle side, characterised in that at least one further hot air duct is provided, in that a further warm air inlet is provided and in that the warm air inlet and the further warm air inlet are arranged next to one another, in that at least one further warm air outlet is provided, which, in the mounted state, is arranged in the area of the second vehicle side, and in that, in the mounted state, warm air supplied via the further warm air inlet can be guided through the further hot air duct from the further warm air inlet to the further warm air outlet.
A robot system comprising: a station body on which an object is placed; a first robot having a lifter that lifts the object placed on the station body and disposed to move in a first direction on the station body; and a second robot disposed on the station body to move in a second direction different from the first direction and having a seating body on which the first robot is seated. a station body on which an object is placed; a first robot having a lifter that lifts the object placed on the station body and disposed to move in a first direction on the station body; and a second robot disposed on the station body to move in a second direction different from the first direction and having a seating body on which the first robot is seated.
Surgical apparatus (10; 170) comprising an implant (12; 172) for mutually supporting an upper spinous process of a first vertebral body by means of an upper supporting surface and a lower spinous process of a second vertebral body by means of a lower supporting surface, wherein the implant (12; 172) comprises a first implant component and a second implant component which is configured such as to be movable relative thereto along a clamping direction in order to transfer the implant (12; 172) out of a basic position in a spreading direction that is oriented transversely relative to the clamping direction into a spread position in which the upper supporting surface and the lower supporting surface are a greater spacing from each other than in the basic position, and wherein the implant (12; 172) comprises at least one introduction-side upper supporting element (57; 179, 180) and at least one introduction-side lower supporting element (55, 56; 181) that are used for laterally supporting the upper spinous process and the lower spinous process on the introduction-side, respectively, in the spread position of the implant (12; 172), characterized in that the apparatus (10; 170) comprises a fixing device (14; 174) for the implant (12; 172) that is used for spreading the at least one introduction-side upper supporting element (57; 179, 180) and the at least one introduction-side lower supporting element (55, 56; 181) relative to each other along the spreading direction and by means of which fixing device (14; 174) the implant (12; 172) is movable from the basic position into an introduction position in which the at least one introduction-side upper supporting element (57; 179, 180) and the at least one introduction-side lower supporting element (55, 56; 181) are at a greater spacing (dEE) relative to each other than in the basic position, and from which the implant (12; 172) is transferable into the spread position by moving the second implant component relative to the first implant component along the clamping direction.
A process for the extraction of copper from a feed material comprising at least one of arsenic and antimony-bearing copper sulphide minerals, wherein the feed material includes about 1.2% to 16.1% arsenic, the process comprising: fine-grinding the feed material, wherein fine-grinding comprises grinding the feed material to a p80 or about 5μm to about 15 μm; after fine-grinding, subjecting the feed material to pressure oxidation in the presence of surfactant and a halogen to produce a product slurry; subjecting the product slurry to liquid/solid separation to obtain a pressure oxidation filtrate and solids comprising at least one of a compound of arsenic and a compound of antimony; recovering copper from the pressure oxidation filtrate. fine-grinding the feed material, wherein fine-grinding comprises grinding the feed material to a p80 or about 5μm to about 15 μm; after fine-grinding, subjecting the feed material to pressure oxidation in the presence of surfactant and a halogen to produce a product slurry; subjecting the product slurry to liquid/solid separation to obtain a pressure oxidation filtrate and solids comprising at least one of a compound of arsenic and a compound of antimony; recovering copper from the pressure oxidation filtrate.
An electronic controllable pipette comprising - a piston actuable in a cylinder by a motor, - a control system enabling the piston to be moved according to a desired pipetting function consisting of several steps, - setting keys (7, 8, 9) for selecting the desired pipetting function and the related settings, - an operating switch activating the desired pipetting function when depressed, and - a display, characterised in that - the control system comprises a change function, whose activation allows a selected pipetting function to be changed in the course of its operation, and when - the change function can be activated, the operation of a given setting key changes, - the changed operation of this setting key is shown on the display, and - the change function can be activated by depressing this setting key. - a piston actuable in a cylinder by a motor, - a control system enabling the piston to be moved according to a desired pipetting function consisting of several steps, - setting keys (7, 8, 9) for selecting the desired pipetting function and the related settings, - an operating switch activating the desired pipetting function when depressed, and - a display, - the control system comprises a change function, whose activation allows a selected pipetting function to be changed in the course of its operation, and when - the change function can be activated, the operation of a given setting key changes, - the changed operation of this setting key is shown on the display, and - the change function can be activated, the operation of a given setting key changes, - the changed operation of this setting key is shown on the display, and - the change function can be activated by depressing this setting key.
A polycrystalline chemical vapour deposited diamond wafer comprising: a largest linear dimension equal to or greater than 70 mm; a thickness equal to or greater than 1.3 mm; and one or both of the following characteristics measured at room temperature (nominally 298 K) over at least a central area of the polycrystalline CVD diamond wafer, said central area being circular, centred on a central point of the polycrystalline CVD diamond wafer, and having a diameter of at least 70% of the largest linear dimension of the polycrystalline CVD diamond wafer: an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4, wherein the polycrystalline CVD diamond wafer further comprises one or both of the following characteristics over at least the central area: an average black spot density no greater than 1 mm -2; and a black spot distribution such that there are no more than 4 black spots within any 3 mm 2 area. a largest linear dimension equal to or greater than 70 mm; a thickness equal to or greater than 1.3 mm; and one or both of the following characteristics measured at room temperature (nominally 298 K) over at least a central area of the polycrystalline CVD diamond wafer, said central area being circular, centred on a central point of the polycrystalline CVD diamond wafer, and having a diameter of at least 70% of the largest linear dimension of the polycrystalline CVD diamond wafer: an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4, wherein the polycrystalline CVD diamond wafer further comprises one or both of the following characteristics over at least the central area: an average black spot density no greater than 1 mm -2; and a black spot distribution such that there are no more than 4 black spots within any 3 mm 2 area. an absorption coefficient ≤ 0.2 cm -1 at 10.6 μm; and a dielectric loss coefficient at 145 GHz, of tan δ ≤ 2 x 10 -4, an average black spot density no greater than 1 mm -2; and a black spot distribution such that there are no more than 4 black spots within any 3 mm 2 area.
A laundry treatment appliance comprising a drawer for containing at least one laundry treatment agent, and at least two components ( 210 P1,210 P2; 210 E; 215 1,AD; 245; 250) associated with said drawer and configured to be manually actuated by a user while the user is interacting with the drawer, characterized in that said at least two components ( 210 P1,210 P2; 210 E; 215 1,AD; 245; 250) comprise, at least on respective portions ( 210 P1,210 P2; 210 E,ACT; 215 1,AD; 245 G1,245 G2,245 AB; 250 ACT) thereof, respective markers with at least one common appearance feature, which stands out from a generally uniform appearance of the drawer, for allowing the user to visually identify said at least two components ( 210 P1,210 P2; 210E; 215 1,AD; 245; 250) in the drawer, wherein said markers comprise, for at least one of said at least two components ( 210 P1,210 P2; 210 E; 215 1,AD; 245; 250), a function indicator allowing the user to recognize a function of the respective marked component ( 210 P1,210 P2; 210 E; 215 1,AD; 245; 250) or of a drawer part associated therewith.
A rotary laser apparatus, comprising: a light-projection section configured to irradiate at least two fan-shaped beams (9a, 9b, 9c) extending in a fan-shaped form in a direction orthogonal to a rotary axis; a laser beam source configured to generate a laser beam in a direction of the rotary axis; a rotation-irradiating section configured to rotatably irradiate the laser beam from the laser beam source in directions orthogonal to the rotary axis; a plurality of penta prisms (20e, 21e, 22e) provided in the rotation-irradiating section and arranged in the direction of the rotary axis correspondingly to the number of said fan-shaped beams 89a, 9b, 9c) such that light-emitting directions of the respective penta prisms (20e, 21e, 22e) differ from each other or one another; and a beam splitter (20b, 21b) configured to divide the laser beam which corresponding one of the penta prisms (20e, 21e, 22e) requires; characterized in that an edge prism (23,24) is provided integrally between each of two adjacent penta prisms (20e, 21e, 22e) so that the edge prism (23, 24) buries a gap between said adjacent penta prisms (20e, 21 e, 22e), and a fixing member (25, 26) is configured to press the penta prisms (20e, 21e, 22e) and each edge prism (23, 24) which are integrated against the rotation-irradiating section, such that the penta prisms (20e, 21e, 22e) and said each edge prism (23, 24) are fixed to the rotation-irradiating section under pressure. a light-projection section configured to irradiate at least two fan-shaped beams (9a, 9b, 9c) extending in a fan-shaped form in a direction orthogonal to a rotary axis; a laser beam source configured to generate a laser beam in a direction of the rotary axis; a rotation-irradiating section configured to rotatably irradiate the laser beam from the laser beam source in directions orthogonal to the rotary axis; a plurality of penta prisms (20e, 21e, 22e) provided in the rotation-irradiating section and arranged in the direction of the rotary axis correspondingly to the number of said fan-shaped beams 89a, 9b, 9c) such that light-emitting directions of the respective penta prisms (20e, 21e, 22e) differ from each other or one another; and a beam splitter (20b, 21b) configured to divide the laser beam which corresponding one of the penta prisms (20e, 21e, 22e) requires; characterized in that an edge prism (23,24) is provided integrally between each of two adjacent penta prisms (20e, 21e, 22e) so that the edge prism (23, 24) buries a gap between said adjacent penta prisms (20e, 21 e, 22e), and a fixing member (25, 26) is configured to press the penta prisms (20e, 21e, 22e) and each edge prism (23, 24) which are integrated against the rotation-irradiating section, such that the penta prisms (20e, 21e, 22e) and said each edge prism (23, 24) are fixed to the rotation-irradiating section under pressure.
A communication device comprising: a data processing unit configured to generate a sub GOP media segment as packet-stored data, the sub GOP media segment storing media data including only part of constituent data of a Group of Pictures as a processing unit of encoded data, and metadata corresponding to the media data, wherein Network Abstraction Layer units of a GOP are stored in three sub GOP media segments, and generate a packet having stored the sub GOP media segment and having an in-GOP location identifier in a header of the packet, recorded as packet additional information therein, the in-GOP location identifier indicating an in-GOP location of the media data stored in the sub GOP media segment and enabling determination as to in which one of a start position, a middle position, and an end position of the GOP the media data stored in the sub GOP media segment is located, the packet further having a segment identifier comprising identification information about the GOP to which the media data (mdat) stored in the packet belongs; and a communication unit configured to transmit the packet generated by the data processing unit. a data processing unit configured to generate a sub GOP media segment as packet-stored data, the sub GOP media segment storing media data including only part of constituent data of a Group of Pictures as a processing unit of encoded data, and metadata corresponding to the media data, wherein Network Abstraction Layer units of a GOP are stored in three sub GOP media segments, and generate a packet having stored the sub GOP media segment and having an in-GOP location identifier in a header of the packet, recorded as packet additional information therein, the in-GOP location identifier indicating an in-GOP location of the media data stored in the sub GOP media segment and enabling determination as to in which one of a start position, a middle position, and an end position of the GOP the media data stored in the sub GOP media segment is located, the packet further having a segment identifier comprising identification information about the GOP to which the media data (mdat) stored in the packet belongs; and a communication unit configured to transmit the packet generated by the data processing unit.
A vibratory apparatus comprises: a trough assembly comprising first and second plates (40, 42), the first and second plates (40, 42) joined together in close proximity so as to define a space through which a coolant fluid may pass at a high velocity, the first plate having a surface on which a molten slag to be moved along the trough assembly may be deposited, characterized in that the first plate is made of mild steel; that a vibration generator is coupled to the trough assembly; and that a frame is resiliently coupled to the trough assembly. a trough assembly comprising first and second plates (40, 42), the first and second plates (40, 42) joined together in close proximity so as to define a space through which a coolant fluid may pass at a high velocity, the first plate having a surface on which a molten slag to be moved along the trough assembly may be deposited, characterized in that the first plate is made of mild steel; that a vibration generator is coupled to the trough assembly; and that a frame is resiliently coupled to the trough assembly.
An electric motor comprising: a stator including a winding defining a plurality of poles, wherein the winding is controllable to switch between a first number of poles and a second number of poles; and a rotor rotatable within the stator, the rotor including a first group of magnetic flux barriers that define eight poles with each of the eight poles including two slots in the rotor, each of the slots in the first group of magnetic flux barriers being without permanent magnet material; a second group of magnetic flux barriers that define four poles with each of the four poles including parts of two slots that are at least partially filled with a permanent magnet material; and at least four groups of rotor slots that include cage windings, wherein each of the at least four groups of rotor slots are disposed between two circumferentially adjacent poles of the first group of magnetic flux barriers. a stator including a winding defining a plurality of poles, wherein the winding is controllable to switch between a first number of poles and a second number of poles; and a rotor rotatable within the stator, the rotor including a first group of magnetic flux barriers that define eight poles with each of the eight poles including two slots in the rotor, each of the slots in the first group of magnetic flux barriers being without permanent magnet material; a second group of magnetic flux barriers that define four poles with each of the four poles including parts of two slots that are at least partially filled with a permanent magnet material; and at least four groups of rotor slots that include cage windings, wherein each of the at least four groups of rotor slots are disposed between two circumferentially adjacent poles of the first group of magnetic flux barriers.
Method for working out the angular position of a rotating element which is mounted in a fixed frame, consisting in using at least one light source emitting a beam of light (3,3a,3b), said beam of light (3, 3a, 3b) being directed to or reflected to a fixed sensor and using processing and computing means for delivering an output signal of the sensor, characterized in that it consists in: - a) arranging the light source with respect to the rotating element and of the sensor in a way so as to induce an interaction between the beam of light (3,3a,3b) and the sensor which depends on the angular position of the rotating element, - b) arranging on the path of the beam of light (3,3a,3b), in a fixed position with respect to the sensor, a mask which presents a repetitive two dimensional pattern of transparent and opaque areas, - c) detecting the image or shadows casted by the mask on the sensor, - d) processing the output signal of the sensor for determining the position of the image or shadows on the sensor, - e) and computing the angular position of the rotating element by using the position of the image or shadows on the sensor. - a) arranging the light source with respect to the rotating element and of the sensor in a way so as to induce an interaction between the beam of light (3,3a,3b) and the sensor which depends on the angular position of the rotating element, - b) arranging on the path of the beam of light (3,3a,3b), in a fixed position with respect to the sensor, a mask which presents a repetitive two dimensional pattern of transparent and opaque areas, - c) detecting the image or shadows casted by the mask on the sensor, - d) processing the output signal of the sensor for determining the position of the image or shadows on the sensor, - e) and computing the angular position of the rotating element by using the position of the image or shadows on the sensor.