mhurhangee/ep-ind-claims huggingface dataset:
Positioning device, comprising a base element, a carrier element to be positioned relative to the base element along a z-axis as well as at least one first and one second slide element (11, 12), wherein the first or second slide element (11, 12) on the one hand is disposed displaceably by means of a first or second base guide device (21, 22) along a first or second base line (121, 122) on the base element and on the other hand by means of a first or second ascent guide device (31, 32) along a first or second ascent line (131, 132) on the carrier element, wherein the first or second ascent line (131, 132) and the first or second base line (121, 122) run in a projection along the z-axis parallel to one another and with respectively constant different angles of inclination relative to the z-axis, wherein the first and the second ascent guide device (31, 32) are arranged with respect to one another in such a manner that in at least one projection perpendicular to the z-axis, the first and the second ascent line (131, 132) are inclined opposite to one another relative to the z-axis so that a synchronous displacement of the first and the second slide element (11, 12) relative to the base element causes a displacement of the carrier element relative to the base element exclusively along the z-axis, characterized in that the positioning device further comprises a third and a fourth slide element (13, 14), wherein the third or fourth slide element (13, 14) is disposed displaceably on the one hand by means of a third or fourth base guide device (23, 24) along a third or fourth base line (123, 124) on the base element and on the other hand by means of a third or fourth ascent guide device (33, 34) along a third or fourth ascent line (133, 134) on the carrier element, wherein the third or fourth ascent line (133, 134) and the third or fourth base line (123, 124) run parallel to one another in a projection along the z-axis and with respectively constant, different angles of inclination relative to the z-axis, and wherein the third and fourth ascent guide devices (33, 34) are disposed with respect to one another in such a manner that in at least one projection perpendicular to the z-axis, the third and the fourth ascent line (133, 134) are inclined opposite to one another relative to the z-axis so that a synchronous displacement of the first, second, third and fourth slide element (11, 12, 13, 14) relative to the base element causes a displacement of the carrier element relative to the base element exclusively along the z-axis.
Apparatus for manufacturing a sheath for electrical cables, in particular a sheath for cables in automobiles, comprising at least one manipulator and one nozzle connected to the manipulator for dispensing a curable liquid plastic material in the course of a generative manufacturing method, wherein the sheath is produced entirely or partly using the generative manufacturing method by constructing a layering sequence, characterized in that the sheath closely envelops the cables or a wiring harness constituted in this way in the manner of a tubular sheath, wherein further for the construction of the sheath initially a first layer is built up on a base by the manipulator performing a circular movement about the wiring harness which is fed through an opening in the base, which movement is controlled with a control unit, and wherein the plastic material includes a grafted acrylate polymer as the main constituent.
An aircraft cabin in which is installed a plurality of modular aircraft seat units, the modular aircraft seat units being like seat units, each modular aircraft seat unit including a seat and a console adjacent to the seat, the seat being configurable between a bed mode and a seat mode, the seat units being arranged in the aircraft cabin such that: - at least a pair of directly adjacent columns of seat units (12, 14) are formed, each column extending parallel to a common column axis, and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, wherein the console of each seat unit accommodates a foot-well for use by a passenger sat in a different seat from that of the seat unit, wherein each seat unit includes an arm-rest surface for use by a passenger in the seat of the seat unit, characterized in that the arm-rest surface overhangs a region aft of the foot-well defined by the console of the seat unit, such region being suitable for accommodating the legs of a passenger whose feet are in the foot-well. each modular aircraft seat unit including a seat and a console adjacent to the seat, the seat being configurable between a bed mode and a seat mode, the seat units being arranged in the aircraft cabin such that: - at least a pair of directly adjacent columns of seat units (12, 14) are formed, each column extending parallel to a common column axis, and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, wherein the console of each seat unit accommodates a foot-well for use by a passenger sat in a different seat from that of the seat unit, wherein - at least a pair of directly adjacent columns of seat units (12, 14) are formed, each column extending parallel to a common column axis, and - the seat of each seat unit faces a direction inclined to the column axis by a seat offset angle, each seat unit includes an arm-rest surface for use by a passenger in the seat of the seat unit, characterized in that the arm-rest surface overhangs a region aft of the foot-well defined by the console of the seat unit, such region being suitable for accommodating the legs of a passenger whose feet are in the foot-well.
A microwave heating apparatus, comprising: microwave generation means; a heating chamber accommodating an object to be heated; and a waveguide for propagating a microwave from the microwave generation means to the heating chamber, wherein the waveguide has a bent propagation route, and includes a pair of magnetic field surfaces (43 to 45, 50; 52, 54, 59) facing each other, and a pair of electric field surfaces facing each other, one magnetic field surface of the pair of magnetic field surfaces (43 to 45, 50; 52, 54, 59) is provided with a mechanism into which the microwave from the microwave generation means is introduced, and a mechanism for radiating the microwave propagated through the waveguide to the heating chamber, and a discharge prevention hole (80A to 80C) for reducing strength of an electric field in a particular area is formed in a wall surface forming the waveguide; characterized in that: the waveguide has a square section orthogonal to a propagation route; the mechanism into which the microwave is introduced, the mechanism being provided in the magnetic field surface (43 to 45), is an antenna, and the discharge prevention hole (80A to 80C) is formed at a position distant from a center of the antenna by a length of not more than 1/4 ± 20% of a wavelength of the microwave in the magnetic field surface (43 to 45). microwave generation means; a heating chamber accommodating an object to be heated; and a waveguide for propagating a microwave from the microwave generation means to the heating chamber, wherein the waveguide has a bent propagation route, and includes a pair of magnetic field surfaces (43 to 45, 50; 52, 54, 59) facing each other, and a pair of electric field surfaces facing each other, one magnetic field surface of the pair of magnetic field surfaces (43 to 45, 50; 52, 54, 59) is provided with a mechanism into which the microwave from the microwave generation means is introduced, and a mechanism for radiating the microwave propagated through the waveguide to the heating chamber, and a discharge prevention hole (80A to 80C) for reducing strength of an electric field in a particular area is formed in a wall surface forming the waveguide; characterized in that: the waveguide has a square section orthogonal to a propagation route; the mechanism into which the microwave is introduced, the mechanism being provided in the magnetic field surface (43 to 45), is an antenna, and the discharge prevention hole (80A to 80C) is formed at a position distant from a center of the antenna by a length of not more than 1/4 ± 20% of a wavelength of the microwave in the magnetic field surface (43 to 45). the waveguide has a square section orthogonal to a propagation route; the mechanism into which the microwave is introduced, the mechanism being provided in the magnetic field surface (43 to 45), is an antenna, and the discharge prevention hole (80A to 80C) is formed at a position distant from a center of the antenna by a length of not more than 1/4 ± 20% of a wavelength of the microwave in the magnetic field surface (43 to 45).
A comb comprising a comb main body, two or more comb teeth provided to the comb main body, and two or more through-holes penetrating the comb main body in a thickness direction of the comb main body; wherein curving surfaces having two or more concave and convex parts (7a, 7b) are formed in both side face parts (2b, 2c) of the comb main body in the thickness direction of the comb main body, the side face parts (2b, 2c) corresponding to the thickness direction of the comb main body; wherein each of the concave parts in one side face part is formed at the same position as each of concave parts in other side face part in a longitudinal direction of the comb main body; wherein each of the convex parts in one side face part is formed at the same position as each of convex parts in other side face part in a longitudinal direction of the comb main body; wherein each of the through-holes opens in each of the concave parts of the curving surfaces.
A tray for sample vessels, comprising an upper surface with a plurality of orifices (2; 2.1) in matrix configuration, each of which can accommodate one sample vessel, characterised in that each orifice (2; 2.1) comprises two planar straight positioning walls, which define a positioning corner forming a right angle, that the orifice is provided with a pushing means, which is a flexible support wall (13; 31.1) having an upper edge, two lateral edges and a lower edge (13; 13.1), the upper surface of the tray joining the upper edge of the support wall, which support wall presses a sample vessel, which is inserted into the orifice, towards the positioning corner, and that each orifice has at least one side wall (12;12.1) joining the lateral edge of the support wall.
A method, comprising: receiving by a wireless terminal device, a first message from an access point device, the first message comprising information indicating a plurality of restricted access windows, each restricted access window allocated for a different group of wireless terminal devices associated to a wireless network managed by the access point device; receiving by the wireless terminal device, a second message from the access point device, within a restricted access window of the plurality of restricted access windows, the restricted access window allocated to a group of wireless terminal devices of which the wireless terminal device is a member, the second message comprising information indicating that a communications channel is available; and determining by the wireless terminal device, based on the second message, that the communications channel is not occupied by hidden ones of the wireless terminal devices associated to the wireless network. receiving by a wireless terminal device, a first message from an access point device, the first message comprising information indicating a plurality of restricted access windows, each restricted access window allocated for a different group of wireless terminal devices associated to a wireless network managed by the access point device; receiving by the wireless terminal device, a second message from the access point device, within a restricted access window of the plurality of restricted access windows, the restricted access window allocated to a group of wireless terminal devices of which the wireless terminal device is a member, the second message comprising information indicating that a communications channel is available; and determining by the wireless terminal device, based on the second message, that the communications channel is not occupied by hidden ones of the wireless terminal devices associated to the wireless network.
Method for the position detection of objects, comprising the following sequential steps: 1.1 several objects (7 to 10) are provided that comprise at least one marker (12 to 15), 1.2 a first object is transported to a measuring station in which is disposed at least one ultrasonic sensor (24 to 27), 1.3 the first object is measured by means of ultrasound, wherein ultrasonic waves are reflected by the object, these ultrasonic waves are again received by the at least one ultrasonic sensor (24 to 27) and converted into electric signals, 1.4 the electrical signals are transmitted to an artificial intelligence, wherein only those signals are analyzed that originate from a specific region of the object such that an image of the region is obtained, and 1.5 the obtained image of region is compared with a reference image, wherein it is determined that the object is not in the correct position if the marker is not located in the region being analyzed. 1.1 several objects (7 to 10) are provided that comprise at least one marker (12 to 15), 1.2 a first object is transported to a measuring station in which is disposed at least one ultrasonic sensor (24 to 27), 1.3 the first object is measured by means of ultrasound, wherein ultrasonic waves are reflected by the object, these ultrasonic waves are again received by the at least one ultrasonic sensor (24 to 27) and converted into electric signals, 1.4 the electrical signals are transmitted to an artificial intelligence, wherein only those signals are analyzed that originate from a specific region of the object such that an image of the region is obtained, and 1.5 the obtained image of region is compared with a reference image, wherein it is determined that the object is not in the correct position if the marker is not located in the region being analyzed.
A medical device for occluding a left atrial appendage, the medical device comprising: a first portion comprising a disk shaped portion configured to be positioned outside the left atrial appendage and to overlie the opening of the left atrial appendage; and a second portion comprising a cylindrical shaped body portion configured to be at least partially positioned within a cavity defined by the left atrial appendage, wherein the first and second portions (14, 12) comprise at least one layer of braided metal strands and the cylindrical second portion is shaped at its end adjacent to the disk portion, to form a concave conical surface at an oblique angle to the device axis, the conical surface configured to allow displacement of the cylindrical portion from adjacent the disk portion by cone flattening and thereby provide radial expansion force for device retention on the cylindrical outer diameter and to provide axial tension between the disk portion and cylindrical portion when they are displaced apart. a first portion comprising a disk shaped portion configured to be positioned outside the left atrial appendage and to overlie the opening of the left atrial appendage; and a second portion comprising a cylindrical shaped body portion configured to be at least partially positioned within a cavity defined by the left atrial appendage, wherein the first and second portions (14, 12) comprise at least one layer of braided metal strands and the cylindrical second portion is shaped at its end adjacent to the disk portion, to form a concave conical surface at an oblique angle to the device axis, the conical surface configured to allow displacement of the cylindrical portion from adjacent the disk portion by cone flattening and thereby provide radial expansion force for device retention on the cylindrical outer diameter and to provide axial tension between the disk portion and cylindrical portion when they are displaced apart.
A port rate determining method, applied to a computer device, wherein the computer device comprises a port used to perform data transmission with a peer end, the port comprises N physical channels, and the port rate determining method comprises: a) obtaining, by the computer device, a negotiated rate of each of the N physical channels, to obtain M different negotiated rates, wherein the negotiated rate is a communication rate negotiated for each physical channel when a connection is established between the port and a port of the peer end, N is a positive integer greater than 1, and M is a positive integer not greater than N; b) determining, by the computer device, a total port bandwidth corresponding to each of the M negotiated rates, wherein a total port bandwidth corresponding to an i th negotiated rate in the M negotiated rates is a total bandwidth reached by the port when the i th negotiated rate is set as a channel transmission rate of the port, and the channel transmission rate is used to represent an actual rate of data transmission on each physical channel in the port; and c) setting, by the computer device, a negotiated rate corresponding to a largest total port bandwidth in total port bandwidths corresponding to the M negotiated rates as the channel transmission rate of the port, characterized in that: d) the total port bandwidth corresponding to the i th negotiated rate is specifically a product of the i th negotiated rate and a quantity of physical channels whose negotiated rates are not less than the i th negotiated rate in the N physical channels. a) obtaining, by the computer device, a negotiated rate of each of the N physical channels, to obtain M different negotiated rates, wherein the negotiated rate is a communication rate negotiated for each physical channel when a connection is established between the port and a port of the peer end, N is a positive integer greater than 1, and M is a positive integer not greater than N; b) determining, by the computer device, a total port bandwidth corresponding to each of the M negotiated rates, wherein a total port bandwidth corresponding to an i th negotiated rate in the M negotiated rates is a total bandwidth reached by the port when the i th negotiated rate is set as a channel transmission rate of the port, and the channel transmission rate is used to represent an actual rate of data transmission on each physical channel in the port; and c) setting, by the computer device, a negotiated rate corresponding to a largest total port bandwidth in total port bandwidths corresponding to the M negotiated rates as the channel transmission rate of the port, characterized in that: d) the total port bandwidth corresponding to the i th negotiated rate is specifically a product of the i th negotiated rate and a quantity of physical channels whose negotiated rates are not less than the i th negotiated rate in the N physical channels.
Mating enclosure comprising: a flange having a forward face, a rearward face, and a central opening, at least one locking element comprising a protrusion to enable a bayonet-type locking, wherein the protrusion has an inner surface and a forward end, an annular collar which is of smaller height in the axial direction than the protrusion, and a gasket, wherein the collar forms a support for the gasket on its outer circumference. a flange having a forward face, a rearward face, and a central opening, at least one locking element comprising a protrusion to enable a bayonet-type locking, wherein the protrusion has an inner surface and a forward end, an annular collar which is of smaller height in the axial direction than the protrusion, and a gasket, wherein the collar forms a support for the gasket on its outer circumference.
A method for the production of a fibre composite, the method comprising the following steps: 1.1 bringing fibres and polymer together; 1.2 applying thermal energy to the fibres, wherein 1.2.1 application of the energy heats the fibres to a temperature which is above the temperature of the polymer; and 1.2.2 the temperature to which the fibres are heated is above the melting temperature of the polymer; 1.3 further processing the fibres to which energy has been applied and the polymer in order to form a fibre composite. 1.1 bringing fibres and polymer together; 1.2 applying thermal energy to the fibres, wherein 1.2.1 application of the energy heats the fibres to a temperature which is above the temperature of the polymer; and 1.2.2 the temperature to which the fibres are heated is above the melting temperature of the polymer; 1.2.1 application of the energy heats the fibres to a temperature which is above the temperature of the polymer; and 1.2.2 the temperature to which the fibres are heated is above the melting temperature of the polymer; 1.3 further processing the fibres to which energy has been applied and the polymer in order to form a fibre composite.
Etamsylate as therapeutic agent or a pharmaceutically acceptable salt or solvate thereof for use in the treatment of virus infection using heparan sulfate for cell penetration characterized in that the virus infection is herpes simplex virus infection occurring in mucosal/epithelial surfaces such as genital and herpetic stromal keratitis.
A digital dispense device for ejecting one or more fluids into a target area of a substrate, the digital dispense device comprising: A) a fluid ejection head for the digital dispense device having a linear array (42A-42D) of fluid ejectors thereon, wherein the fluid ejectors are grouped by primitives (P1-P4) from a first end of the linear array to a second end of the linear array; B) a fluid ejection head translation device for moving the fluid ejection head over the target area of the substrate in a first direction, wherein the linear array of fluid ejectors on the fluid ejection head are oriented parallel to the first direction; and C) a control device configured to sequentially activate all of the primitives of fluid ejectors in the linear array of fluid ejectors while moving the fluid ejection head over the target area and as the linear array of fluid ejectors intersect the target area of the substrate. A) a fluid ejection head for the digital dispense device having a linear array (42A-42D) of fluid ejectors thereon, wherein the fluid ejectors are grouped by primitives (P1-P4) from a first end of the linear array to a second end of the linear array; B) a fluid ejection head translation device for moving the fluid ejection head over the target area of the substrate in a first direction, wherein the linear array of fluid ejectors on the fluid ejection head are oriented parallel to the first direction; and C) a control device configured to sequentially activate all of the primitives of fluid ejectors in the linear array of fluid ejectors while moving the fluid ejection head over the target area and as the linear array of fluid ejectors intersect the target area of the substrate.