mhurhangee/ep-ind-claims huggingface dataset:
An information processing device, comprising: a data processing unit configured to perform a reproducing process for content, wherein the content includes an individual segment region configured with a plurality of pieces of variation data that include different identification information embedded therein and are decryptable using different keys and a common segment region configured with a single piece of data, each piece of the variation data is configured with segmented data in units of aligned units, said aligned units forming an MPEG-2 transport stream, TS, the data processing unit is configured to calculate a reproduction path by applying a device key held in a memory, sequentially select an aligned unit corresponding to one piece of variation data corresponding to the reproduction path from a plurality of aligned units constituting a plurality of pieces of variation data in the individual segment region, and reproduce the selected aligned unit, and the data processing unit is configured to select the aligned unit corresponding to the reproduction path on the basis of a variation data identifier recorded in an adaptation field in a TS packet header of a first source packet constituting the aligned unit as plain text data. a data processing unit configured to perform a reproducing process for content, wherein the content includes an individual segment region configured with a plurality of pieces of variation data that include different identification information embedded therein and are decryptable using different keys and a common segment region configured with a single piece of data, each piece of the variation data is configured with segmented data in units of aligned units, said aligned units forming an MPEG-2 transport stream, TS, the data processing unit is configured to calculate a reproduction path by applying a device key held in a memory, sequentially select an aligned unit corresponding to one piece of variation data corresponding to the reproduction path from a plurality of aligned units constituting a plurality of pieces of variation data in the individual segment region, and reproduce the selected aligned unit, and the data processing unit is configured to select the aligned unit corresponding to the reproduction path on the basis of a variation data identifier recorded in an adaptation field in a TS packet header of a first source packet constituting the aligned unit as plain text data.
An optical system comprising: - at least one entrance aperture for entering light to be analyzed, - at least one diffraction grating for spectral dispersion of the light, - at least two detectors (5, 5a, 5b) to measure the spectrum of the light, where the detectors are arranged on the same side of a plane of dispersion of the optical system, and - at least two vertically focusing mirror elements (4, 4a, 4b) for focusing the light onto said detectors (5, 5a, 5b) assigned to said vertically focusing mirror elements, characterized in that the vertically focusing mirror elements are arranged as front row mirror elements and back row mirror elements along two polygon graphs (6a, 6b) offset to each other and to the focal curve, where each section of the polygon graph (6a, 6b) is parallel to its dedicated local tangent to the focal curve of the grating, such that - the angles of deflection (φ, φ 1) for the front row mirror elements are < 90° allowing to minimize the offset of the front row mirror elements to the focal curve, - the distances (d 1) between said front row mirror elements and corresponding detectors assigned to said front row mirror elements is minimized while still avoiding collisions between the corresponding detectors and their mounts with back row detectors and their mounts, and - at least one end of said front row mirror element is overlapping the adjacent back row mirror element or a receptive area of an adjacent direct light detector (5, 5a, 5b) if regarded from the grating. - at least one entrance aperture for entering light to be analyzed, - at least one diffraction grating for spectral dispersion of the light, - at least two detectors (5, 5a, 5b) to measure the spectrum of the light, where the detectors are arranged on the same side of a plane of dispersion of the optical system, and - at least two vertically focusing mirror elements (4, 4a, 4b) for focusing the light onto said detectors (5, 5a, 5b) assigned to said vertically focusing mirror elements, - the angles of deflection (φ, φ 1) for the front row mirror elements are < 90° allowing to minimize the offset of the front row mirror elements to the focal curve, - the distances (d 1) between said front row mirror elements and corresponding detectors assigned to said front row mirror elements is minimized while still avoiding collisions between the corresponding detectors and their mounts with back row detectors and their mounts, and - at least one end of said front row mirror element is overlapping the adjacent back row mirror element or a receptive area of an adjacent direct light detector (5, 5a, 5b) if regarded from the grating.
The use of containers or pipelines having a cladding composed of a melamine-formaldehyde foam for the storage or transport of cryogenic liquids, wherein the melamine-formaldehyde foam is applied as a cladding to the outer wall of the containers or pipelines and is lined on the side facing away from the container or the pipeline with a metal foil having a thickness in the range from 0.02 to 5 mm.
A method of producing a steel plate member (10, 50), comprising: heating a steel plate member (10, 50) to a temperature higher than an austenite transformation finish temperature and subsequently cooling the steel plate member (10, 50) at a cooling rate higher than an upper critical cooling rate, so that the microstructure of the entire steel plate member (10, 50) contains martensite; and softening the steel plate member (10, 50) by reheating the steel plate member (10, 50) after the cooling of the steel plate member (10, 50), wherein the softening of the steel plate member (10, 50) includes, without reheating a first region of the steel plate member (10, 50), reheating a second region of the steel plate member (10, 50) to a temperature between an austenite transformation start temperature and the austenite transformation finish temperature and subsequently cooling the steel plate member (10, 50) at a cooling rate higher than the upper critical cooling rate, the softening of the steel plate member (10, 50) leaving a hard region containing martensite in the first region, forming a soft region containing the martensite and tempered martensite in the second region, and forming a region consisting of the tempered martensite in a boundary region between the first region and the second region, the amount of the tempered martensite in the boundary region decreasing and the amount of martensite in the boundary region increasing, with decreasing distance from the first region. heating a steel plate member (10, 50) to a temperature higher than an austenite transformation finish temperature and subsequently cooling the steel plate member (10, 50) at a cooling rate higher than an upper critical cooling rate, so that the microstructure of the entire steel plate member (10, 50) contains martensite; and softening the steel plate member (10, 50) by reheating the steel plate member (10, 50) after the cooling of the steel plate member (10, 50), wherein the softening of the steel plate member (10, 50) includes, without reheating a first region of the steel plate member (10, 50), reheating a second region of the steel plate member (10, 50) to a temperature between an austenite transformation start temperature and the austenite transformation finish temperature and subsequently cooling the steel plate member (10, 50) at a cooling rate higher than the upper critical cooling rate, the softening of the steel plate member (10, 50) leaving a hard region containing martensite in the first region, forming a soft region containing the martensite and tempered martensite in the second region, and forming a region consisting of the tempered martensite in a boundary region between the first region and the second region, the amount of the tempered martensite in the boundary region decreasing and the amount of martensite in the boundary region increasing, with decreasing distance from the first region.
Stereolithography apparatus, comprising: a light source for emitting light to cure a photocurable material; a sensor for determining an actual value of the light intensity of the emitted light; and a control unit for adjusting the electric current through the light source until the actual value of the light intensity reaches a predetermined target value; wherein the stereolithography apparatus is adapted to redirect the light from the light source to the sensor via a digital mirror device which serves to project a light pattern onto the light-curing material, and wherein the stereolithography apparatus is adapted to couple out the light only for a certain predefined period of time during a calibration process, so that the sensor is exposed to illumination only during this period of time. a light source for emitting light to cure a photocurable material; a sensor for determining an actual value of the light intensity of the emitted light; and a control unit for adjusting the electric current through the light source until the actual value of the light intensity reaches a predetermined target value; wherein the stereolithography apparatus is adapted to redirect the light from the light source to the sensor via a digital mirror device which serves to project a light pattern onto the light-curing material, and wherein the stereolithography apparatus is adapted to couple out the light only for a certain predefined period of time during a calibration process, so that the sensor is exposed to illumination only during this period of time.
Process for producing tyres for vehicle wheels, comprising building a carcass structure on a forming support having a rotation axis (X-X), wherein building a carcass structure comprises in sequence: - arranging a pair of annular support elements in a first operative position, wherein each annular support element is axially adjacent to a respective axial end portion of said forming support and has a predetermined first diameter to form a support surface for a respective axial end edge of at least one carcass ply; - depositing said at least one carcass ply on said forming support and said pair of annular support elements; - bringing said pair of annular support elements into a second operative position in which each annular support element is axially distant from said forming support and has a second diameter that is greater than said first diameter; - associating a respective annular anchoring structure with each of said opposite axial end edges. - arranging a pair of annular support elements in a first operative position, wherein each annular support element is axially adjacent to a respective axial end portion of said forming support and has a predetermined first diameter to form a support surface for a respective axial end edge of at least one carcass ply; - depositing said at least one carcass ply on said forming support and said pair of annular support elements; - bringing said pair of annular support elements into a second operative position in which each annular support element is axially distant from said forming support and has a second diameter that is greater than said first diameter; - associating a respective annular anchoring structure with each of said opposite axial end edges.
A method for increasing energy efficiency of CO 2 capture from a fluid stream containing CO 2, comprising: contacting a CO 2 -containing fluid stream with a sorbent in an adsorber such that the CO 2 reacts with the sorbent so that at least a portion of the CO 2 is removed from the fluid stream and heat is generated; withdrawing heat from the adsorber via heat exchange with a pressurized, liquid working fluid having a vaporization temperature in a range such that the heat in the adsorber arising from the reaction causes a phase change from liquid to vapor and transfers heat from the adsorber to the working fluid, thus forming a heated, vaporized working fluid. contacting a CO 2 -containing fluid stream with a sorbent in an adsorber such that the CO 2 reacts with the sorbent so that at least a portion of the CO 2 is removed from the fluid stream and heat is generated; withdrawing heat from the adsorber via heat exchange with a pressurized, liquid working fluid having a vaporization temperature in a range such that the heat in the adsorber arising from the reaction causes a phase change from liquid to vapor and transfers heat from the adsorber to the working fluid, thus forming a heated, vaporized working fluid.
Refrigerant circuit having a refrigerant comprising a refrigerant oil, having a silencer device comprising a housing in which a first silencer chamber and a second silencer chamber are arranged, wherein the first silencer chamber has a first supply opening which is connectable to the refrigerant circuit, and the second silencer chamber has a second discharge opening which is connectable to the refrigerant circuit, and between the first and second silencer chamber (15, 20) there is arranged a silencer partition which has at least one damping tube which connects the first silencer chamber to the second silencer chamber and which projects, with a first tube section having a first opening, into the first silencer chamber, characterized in that in the silencer partition there is arranged at least one oil bypass opening which connects the first and second silencer chamber (15, 20).
A liquid discharge head comprising: a flow passage member comprising: a plurality of discharge holes; a plurality of pressurizing chambers respectively connected to the plurality of the discharge holes; a plurality of first flow passages respectively connected to the plurality of the pressurizing chambers to supply liquid to the plurality of the pressurizing chambers; a plurality of second flow passages respectively connected to the plurality of the pressurizing chambers to collect the liquid from the plurality of the pressurizing chambers; a plurality of third flow passages respectively connected to the plurality of the pressurizing chambers to supply the liquid to the plurality of the pressurizing chambers; and a plurality of pressurizing sections respectively pressurizing the plurality of the pressurizing chambers, characterised in that the pressurizing chamber comprises a pressurizing chamber body, and a partial flow passage connecting the pressurizing chamber body and the discharge hole, the pressurizing chamber body being connected with the first flow passage, the partial flow passage being connected with the third flow passage. a plurality of discharge holes; a plurality of pressurizing chambers respectively connected to the plurality of the discharge holes; a plurality of first flow passages respectively connected to the plurality of the pressurizing chambers to supply liquid to the plurality of the pressurizing chambers; a plurality of second flow passages respectively connected to the plurality of the pressurizing chambers to collect the liquid from the plurality of the pressurizing chambers; a plurality of third flow passages respectively connected to the plurality of the pressurizing chambers to supply the liquid to the plurality of the pressurizing chambers; and a plurality of pressurizing sections respectively pressurizing the plurality of the pressurizing chambers, characterised in that the pressurizing chamber comprises a pressurizing chamber body, and a partial flow passage connecting the pressurizing chamber body and the discharge hole, the pressurizing chamber body being connected with the first flow passage, the partial flow passage being connected with the third flow passage.
A system comprising: a prosthetic heart valve having an inflow end and an outflow end, comprising: a collapsible and expandable stent; a collapsible and expandable valve assembly disposed within the stent and having a plurality of leaflets; a collapsible and expandable frame formed of braided wires, the frame having a body portion and a lumen extending through the body portion for receiving the stent and the valve assembly; and a delivery device comprising: a hollow catheter for receiving the frame in a collapsed condition; wherein the frame is configured for partial deployment, resheathing and redeployment from the delivery device; the delivery device characterized by an elongate flexible shaft having a distal end configured to be disposed within the catheter and to releasably couple with the frame to couple prosthetic heart valve to the delivery device such that the elongate flexible shaft remains coupled to the frame after the prosthetic heart valve is deployed out of the hollow catheter. a prosthetic heart valve having an inflow end and an outflow end, comprising: a collapsible and expandable stent; a collapsible and expandable valve assembly disposed within the stent and having a plurality of leaflets; a collapsible and expandable frame formed of braided wires, the frame having a body portion and a lumen extending through the body portion for receiving the stent and the valve assembly; and a collapsible and expandable stent; a collapsible and expandable valve assembly disposed within the stent and having a plurality of leaflets; a collapsible and expandable frame formed of braided wires, the frame having a body portion and a lumen extending through the body portion for receiving the stent and the valve assembly; and a delivery device comprising: a hollow catheter for receiving the frame in a collapsed condition; wherein the frame is configured for partial deployment, resheathing and redeployment from the delivery device; the delivery device characterized by an elongate flexible shaft having a distal end configured to be disposed within the catheter and to releasably couple with the frame to couple prosthetic heart valve to the delivery device such that the elongate flexible shaft remains coupled to the frame after the prosthetic heart valve is deployed out of the hollow catheter.
A communication method, comprising: receiving downlink control information, DCI, from a base station, wherein the DCI carries a carrier assignment indication field comprising a first code and a second code, the first code indicates a total number of scheduled carriers in all configured carriers, and the second code indicates an accumulative number M of a current scheduled carrier, and the accumulative number M is an integer greater than or equal to 1; sending hybrid automatic repeat request, HARQ, information to the base station according to the carrier assignment indication field in the DCI. receiving downlink control information, DCI, from a base station, wherein the DCI carries a carrier assignment indication field comprising a first code and a second code, the first code indicates a total number of scheduled carriers in all configured carriers, and the second code indicates an accumulative number M of a current scheduled carrier, and the accumulative number M is an integer greater than or equal to 1; sending hybrid automatic repeat request, HARQ, information to the base station according to the carrier assignment indication field in the DCI.
A stent system provided with a stent having a stent main body of substantially cylindrical shape and an anchor having at least a pair of arms, wherein the stent is provided with at least a pair of holes, and each of said arms has a grasping portion located at the distal end of the arm, each grasping portion is configured to be inserted in each of the holes, the size of the hole, in which the grasping portion is inserted, is at least the size in which a part of the grasping portion can be inserted, and when a grasping force of at least the pair of grasping portions of the arms is X, and the resistance force the stent main body resists against deformation is R, X is greater than R, characterised in that the anchor is configured to fix the stent directly to a hollow organ by grasping the stent together with a biological tissue of the hollow organ.
A lock, comprising a locking module and a driving module, wherein the locking module comprises a latch mounted on a first base on a first main body, an oblique pin ring gear mounted on a second base on a second main body and adapted to the latch; the radial thickness of the oblique pin ring gear changes continuously; a first slot is arranged on the latch, and wherein the driving module is used for driving the oblique pin ring gear to move in a circular motion, such that the oblique pin ring gear clips to or separates from the first slot of the latch that is in a closed position; wherein the first base and the second base are provided with a first groove and a second groove for receiving the latch, respectively, and characterized in that the latch is provided with a latch rotating shaft mounted on the first base through a limit screw so that the latch is rotatable around the first base. wherein the locking module comprises a latch mounted on a first base on a first main body, an oblique pin ring gear mounted on a second base on a second main body and adapted to the latch; the radial thickness of the oblique pin ring gear changes continuously; a first slot is arranged on the latch, and wherein the driving module is used for driving the oblique pin ring gear to move in a circular motion, such that the oblique pin ring gear clips to or separates from the first slot of the latch that is in a closed position; wherein the first base and the second base are provided with a first groove and a second groove for receiving the latch, respectively, and characterized in that the latch is provided with a latch rotating shaft mounted on the first base through a limit screw so that the latch is rotatable around the first base.
An orthopaedic prosthesis comprising: a first component securable to a first bone, the first component comprising a first articular surface; and a bearing component (200, 500) comprising a second articular surface shaped to articulate with the first articular surface and a third articular surface shaped to articulate with a fourth articular surface on a second bone; characterised in that one of the first component and the bearing component (200, 500) comprises a distraction feature that is a ramped channel (222, 522) and the other of the first component and the bearing component (200, 500) comprises a post, wherein the distraction feature is shaped to provide at least one of alignment and distraction between the first articular surface and the fourth articular surface during insertion of the bearing component into a joint space between the first and second bones, and wherein the ramped channel (222, 522) is configured to allow the bearing component (200, 500) to self-align as it is slid in an anterior to posterior direction into place over the post with a minimum of distraction. a first component securable to a first bone, the first component comprising a first articular surface; and a bearing component (200, 500) comprising a second articular surface shaped to articulate with the first articular surface and a third articular surface shaped to articulate with a fourth articular surface on a second bone; characterised in that one of the first component and the bearing component (200, 500) comprises a distraction feature that is a ramped channel (222, 522) and the other of the first component and the bearing component (200, 500) comprises a post, wherein the distraction feature is shaped to provide at least one of alignment and distraction between the first articular surface and the fourth articular surface during insertion of the bearing component into a joint space between the first and second bones, and wherein the ramped channel (222, 522) is configured to allow the bearing component (200, 500) to self-align as it is slid in an anterior to posterior direction into place over the post with a minimum of distraction.