mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus comprising: an apparatus main body formed with an opening; an image forming unit configured to form an image on a sheet; a plurality of storage portions each configured to store the sheet with the image formed thereon by the image forming unit inside the apparatus main body; a sheet moving unit configured to move the sheet stored in each of the plurality of storage portions, and stop the sheet being in an exposure state that a back part of the sheet including a back edge of the sheet in a moving direction is inside the apparatus main body and a front part of the sheet including a front edge in the moving direction is exposed to the outside of the apparatus main body through the opening; an attribute information adding unit configured to add attribute information to print information corresponding to a sheet to be stored in the storage portion; and a memory unit configured to store the attribute information added by the attribute information adding unit, wherein the sheet moving unit is configured to move a first sheet stored in a first storage portion and a second sheet stored in a second storage portion, the first sheet and the second sheet corresponding to the same predetermined information contained in the attribute information stored in the memory unit, and to stop the first sheet and the second sheet in the exposure state, wherein the front part of the first sheet and the front part of the second sheet are exposed outside the main body through the same opening. an apparatus main body formed with an opening; an image forming unit configured to form an image on a sheet; a plurality of storage portions each configured to store the sheet with the image formed thereon by the image forming unit inside the apparatus main body; a sheet moving unit configured to move the sheet stored in each of the plurality of storage portions, and stop the sheet being in an exposure state that a back part of the sheet including a back edge of the sheet in a moving direction is inside the apparatus main body and a front part of the sheet including a front edge in the moving direction is exposed to the outside of the apparatus main body through the opening; an attribute information adding unit configured to add attribute information to print information corresponding to a sheet to be stored in the storage portion; and a memory unit configured to store the attribute information added by the attribute information adding unit, wherein the sheet moving unit is configured to move a first sheet stored in a first storage portion and a second sheet stored in a second storage portion, the first sheet and the second sheet corresponding to the same predetermined information contained in the attribute information stored in the memory unit, and to stop the first sheet and the second sheet in the exposure state, wherein the front part of the first sheet and the front part of the second sheet are exposed outside the main body through the same opening.
Process for manufacturing a photovoltaic concentrator comprising a photovoltaic substrate equipped with a plurality of photovoltaic cells, and an optical structure comprising a first optical-lens stage and a second optical-lens stage that are intended to optically interact with each other, characterized in that it includes the following steps: - providing a mould; - simultaneously forming the first optical-lens stage and the second optical-lens stage using said provided mould, and implementing a step of filling said mould with a material, especially by injecting or pouring said material, in that the step of providing said mould is such that said provided mould includes a first face equipped with a plurality of first cavities each delimiting a shape complementary to that of a corresponding optical lens of the first optical-lens stage and a second face equipped with a plurality of second cavities each delimiting a shape complementary to that of a corresponding optical lens of the second optical-lens stage and in that the provided mould is such that it allows the first optical-lens stage and the second optical-lens stage to be moulded in such a way that the position of the first optical-lens stage in the mould relative to the second optical-lens stage in the mould corresponds to the position desired for the first optical-lens stage relative to the second optical-lens stage in an assembly configuration of the photovoltaic concentrator. - providing a mould; - simultaneously forming the first optical-lens stage and the second optical-lens stage using said provided mould, and implementing a step of filling said mould with a material, especially by injecting or pouring said material,
A blade inspection apparatus configured to inspect a plurality of blades periodically disposed on a periphery of a rotating shaft of a rotor of an engine and rotated on the rotating shaft, comprising: an endoscope having an insertion portion in which an observation optical system is provided; a plurality of fixtures (3, 4), each one configured to be attached to one of a plurality of external access ports provided on the engine and configured to fix the endoscope, and each dedicated to a respective one of the external access ports; and an identification information output portion (3c, 4c) configured to hold and output identification information for identifying the external access port to which each fixture (3, 4) is configured to be attached. an endoscope having an insertion portion in which an observation optical system is provided; a plurality of fixtures (3, 4), each one configured to be attached to one of a plurality of external access ports provided on the engine and configured to fix the endoscope, and each dedicated to a respective one of the external access ports; and an identification information output portion (3c, 4c) configured to hold and output identification information for identifying the external access port to which each fixture (3, 4) is configured to be attached.
Hinge between two parts of a display device, a first part constituted by an opening leaf, and a second part constituted by a casing formed by a frame, the hinge being formed by at least three elements: - a first element, mounted fixed on the opening leaf, forming and/or carrying a projecting element constituting a pivot axis, - a second element, mounted fixed to the first element and having at least one portion arranged so as to produce with the first element a housing in the form of a cylindrical sector centred on the pivot axis, - a third element, fixed on the casing, arranged so that at least one portion slides in rotation in relation to the pivot axis in the housing formed between the first and the second element of the hinge, this portion having a profile forming a cylindrical sector centred on the pivot axis of the first element and with the same diameter as the profile of the housing, characterised in that: the second element forms a sealed continuation with the third element, the portion of the second element which produces the sliding housing covering the sliding portion of the third element, and in that the first element and the second element are situated on the same side in relation to the third element and have a complementary shape, allowing the production of a housing and a sealed arrangement for the hinge, and in that the second element is positioned on the external face of the opening leaf. - a first element, mounted fixed on the opening leaf, forming and/or carrying a projecting element constituting a pivot axis, - a second element, mounted fixed to the first element and having at least one portion arranged so as to produce with the first element a housing in the form of a cylindrical sector centred on the pivot axis, - a third element, fixed on the casing, arranged so that at least one portion slides in rotation in relation to the pivot axis in the housing formed between the first and the second element of the hinge, this portion having a profile forming a cylindrical sector centred on the pivot axis of the first element and with the same diameter as the profile of the housing, the second element forms a sealed continuation with the third element, the portion of the second element which produces the sliding housing covering the sliding portion of the third element, and in that the first element and the second element are situated on the same side in relation to the third element and have a complementary shape, allowing the production of a housing and a sealed arrangement for the hinge, and in that the second element is positioned on the external face of the opening leaf.
A method for processing substrates, in particular wafers, masks or flat panel displays, using a semiconductor industry machine, wherein an artificial neural network is used for determining the presence and/or the location and/or the orientation and/or the type of a substrate; for determining the presence and/or the position and/or the orientation and/or the type of the substrate on the basis of at least one image that shows a location in or on the semiconductor industry machine or in the vicinity of the machine, where a substrate can be located during operation of the semiconductor industry machine; wherein the at least one image is captured by at least one capturing unit; and wherein the artificial neural network is used to generate an information dataset comprising a piece of information about the determined presence and/or position and/or orientation and/or type of the substrate and/or to generate and/or enable a control command which is used for directly controlling the semiconductor industry machine, or is used by the machine controller; or is forwarded to a higher-level control system; or is forwarded to an operator who draws conclusions from this piece of information for his actions to operate the machine, or forwards this piece of information to controllers or other operators, or is stored for later or further evaluation. for determining the presence and/or the position and/or the orientation and/or the type of the substrate on the basis of at least one image that shows a location in or on the semiconductor industry machine or in the vicinity of the machine, where a substrate can be located during operation of the semiconductor industry machine; wherein the at least one image is captured by at least one capturing unit; and wherein the artificial neural network is used to generate an information dataset comprising a piece of information about the determined presence and/or position and/or orientation and/or type of the substrate and/or to generate and/or enable a control command which is used for directly controlling the semiconductor industry machine, or is used by the machine controller; or is forwarded to a higher-level control system; or is forwarded to an operator who draws conclusions from this piece of information for his actions to operate the machine, or forwards this piece of information to controllers or other operators, or is stored for later or further evaluation.
A vehicle comprising: a power receiving unit (251, 252) configured to receive an electric power wirelessly transmitted in a non-contact manner from a power feeding device provided outside the vehicle; a power storage device; a charger configured to charge the power storage device using the electric power received by the power receiving unit (251, 252); and a charging control unit configured to control the charger, the vehicle being characterized in that the charging control unit is configured to: determine whether the vehicle is in a rest state before starting charging the power storage device; detect an initial position of the vehicle at the beginning of charging the power storage device; cause the power feeding device to stop transmitting the electric power to stop charging the power storage device, when the charging control unit determines a variation in position of the vehicle not lower than a predetermined threshold while charging the power storage device; and cause the power feeding device to resume transmitting the electric power to charge the power storage device, when a resume condition for charging the power storage device is satisfied during stopping charging the power storage device. a power receiving unit (251, 252) configured to receive an electric power wirelessly transmitted in a non-contact manner from a power feeding device provided outside the vehicle; a power storage device; a charger configured to charge the power storage device using the electric power received by the power receiving unit (251, 252); and a charging control unit configured to control the charger, the vehicle being characterized in that the charging control unit is configured to: determine whether the vehicle is in a rest state before starting charging the power storage device; detect an initial position of the vehicle at the beginning of charging the power storage device; cause the power feeding device to stop transmitting the electric power to stop charging the power storage device, when the charging control unit determines a variation in position of the vehicle not lower than a predetermined threshold while charging the power storage device; and cause the power feeding device to resume transmitting the electric power to charge the power storage device, when a resume condition for charging the power storage device is satisfied during stopping charging the power storage device. determine whether the vehicle is in a rest state before starting charging the power storage device; detect an initial position of the vehicle at the beginning of charging the power storage device; cause the power feeding device to stop transmitting the electric power to stop charging the power storage device, when the charging control unit determines a variation in position of the vehicle not lower than a predetermined threshold while charging the power storage device; and cause the power feeding device to resume transmitting the electric power to charge the power storage device, when a resume condition for charging the power storage device is satisfied during stopping charging the power storage device.
A bonded abrasive wheel comprising ceramic shaped abrasive particles (20, 320) retained in a binder, wherein each of the ceramic shaped abrasive particles (20, 320) is respectively bounded by a polygonal base, a polygonal top, and a plurality of sides connecting the base and the top, wherein adjacent sides meet at respective side edges having an average radius of curvature of less than 50 micrometers.
A preform-molding process wherein in the successive injection process in which multiple resins including at least one colored resin are successively injected into cavity of mold by way of a gate located at a position opposed to the center of bottom of the preform, the process for injection molding the preform to be used in biaxial drawing and blow molding comprises: injecting initially a short shot of a colored resin into the cavity of the mold; then injecting a second resin and letting the second resin wedge its way through central part of the earlier injected colored resin to form laminated layers; and forming a color-gradated portion wherein thickness of the colored resin layer made of the colored resin injected earlier is gradually reduced toward the bottom characterized in that the extent of gradation associated with the thickness of the colored resin layer made of the previously injected colored resin is controlled by a combination of injection speed and pressure of the subsequently injected resin. injecting initially a short shot of a colored resin into the cavity of the mold; then injecting a second resin and letting the second resin wedge its way through central part of the earlier injected colored resin to form laminated layers; and forming a color-gradated portion wherein thickness of the colored resin layer made of the colored resin injected earlier is gradually reduced toward the bottom characterized in that the extent of gradation associated with the thickness of the colored resin layer made of the previously injected colored resin is controlled by a combination of injection speed and pressure of the subsequently injected resin.
Antibody or antibody fragment directed against plexin D1 for use in the treatment of a disorder that involves the expression of plexin D1 on tumor cells or activated macrophages, wherein the disorder is selected from the group consisting of brain tumors, astrocytomas, oligodendrogliomas, hemangioblastomas, colon carcinomas, ductal carcinomas of the colon, prostate carcinomas, renal cell carcinomas, renal clear cell carcinomas, ovary carcinomas, squamous cell carcinomas, melanomas, lung carcinomas, small-cell lung carcinomas, non-small cell lung carcinomas and soft tissue sarcomas.
A method of determining a select set of beam indices for use with transmissions from a transmitter to a receiver using hybrid precoding, comprising: obtaining one or more metrics for a first plurality of pairs of beam indices for use with the transmissions from the transmitter to the receiver, where each pair of beam indices includes a transmit beam index for an antenna of the transmitter and a receive beam index for an antenna of the receiver; selecting a first subset of the first plurality of pairs of beam indices according to a first pruning decision, where the first subset includes at least one of the first plurality of pairs of beam indices; obtaining one or more metrics for a second plurality of pairs of beam indices for use with the transmissions from the transmitter to the receiver for the pairs of beam indices in the first subset of the first plurality of pairs of beam indices, where each pair of beam indices in the second plurality of pairs of beam indices together with a respective one of the pairs of beam indices in the first subset of the first plurality of pairs of beam indices forms a potential set of beam indices; selecting a second subset of the second plurality of pairs of beam indices according to a second pruning decision, where the second subset includes at least one of the second plurality of pairs of beam indices; and processing only the second subset of the second plurality of pairs of beam indices to determine the selected set of beam indices for use with the transmissions from the transmitter to the receiver using hybrid precoding. obtaining one or more metrics for a first plurality of pairs of beam indices for use with the transmissions from the transmitter to the receiver, where each pair of beam indices includes a transmit beam index for an antenna of the transmitter and a receive beam index for an antenna of the receiver; selecting a first subset of the first plurality of pairs of beam indices according to a first pruning decision, where the first subset includes at least one of the first plurality of pairs of beam indices; obtaining one or more metrics for a second plurality of pairs of beam indices for use with the transmissions from the transmitter to the receiver for the pairs of beam indices in the first subset of the first plurality of pairs of beam indices, where each pair of beam indices in the second plurality of pairs of beam indices together with a respective one of the pairs of beam indices in the first subset of the first plurality of pairs of beam indices forms a potential set of beam indices; selecting a second subset of the second plurality of pairs of beam indices according to a second pruning decision, where the second subset includes at least one of the second plurality of pairs of beam indices; and processing only the second subset of the second plurality of pairs of beam indices to determine the selected set of beam indices for use with the transmissions from the transmitter to the receiver using hybrid precoding.
A heart valve coaptation system for reducing regurgitation through the valve, comprising: a flexible rail having a ventricular anchor on a distal end thereof adapted to anchor into tissue within a ventricle; a delivery catheter having a lumen defining a central axis through which the flexible rail passes and including a locking mechanism for fixing relative axial positions of the delivery catheter and flexible rail; and a coaptation member (34, 50, 70) fixed on a distal end of the delivery catheter having an outer cover surrounding a compressible inner filler member (54, 74) and a generally cylindrical shape, the compressible inner filler member (54, 74) being mounted on the delivery catheter so that a majority of the filler member (54, 74) is radially offset from the central axis of the delivery catheter and the delivery catheter lies along one radial side thereof to form an offset spine of the coaptation member (34, 50, 70). a flexible rail having a ventricular anchor on a distal end thereof adapted to anchor into tissue within a ventricle; a delivery catheter having a lumen defining a central axis through which the flexible rail passes and including a locking mechanism for fixing relative axial positions of the delivery catheter and flexible rail; and a coaptation member (34, 50, 70) fixed on a distal end of the delivery catheter having an outer cover surrounding a compressible inner filler member (54, 74) and a generally cylindrical shape, the compressible inner filler member (54, 74) being mounted on the delivery catheter so that a majority of the filler member (54, 74) is radially offset from the central axis of the delivery catheter and the delivery catheter lies along one radial side thereof to form an offset spine of the coaptation member (34, 50, 70).
Semiconductor laser diode with a semiconductor layer sequence comprising an active zone, wherein - the semiconductor layer sequence comprises a p-doped semiconductor layer and on which a contact layer is arranged, - a refractive index of the contact layer is smaller than a refractive index of the p-doped semiconductor layer, - on a side of the semiconductor laser diode facing the contact layer a carrier is arranged, - the semiconductor layer sequence has a cylindrical shape, - a cylinder axis (z) of the semiconductor layer sequence is perpendicular to a layer plane of the semiconductor layer sequence, and - the semiconductor laser diode emits radiation generated during operation perpendicular to the cylinder axis (z) of the semiconductor layer sequence. - the semiconductor layer sequence comprises a p-doped semiconductor layer and on which a contact layer is arranged, - a refractive index of the contact layer is smaller than a refractive index of the p-doped semiconductor layer, - on a side of the semiconductor laser diode facing the contact layer a carrier is arranged, - the semiconductor layer sequence has a cylindrical shape, - a cylinder axis (z) of the semiconductor layer sequence is perpendicular to a layer plane of the semiconductor layer sequence, and - the semiconductor laser diode emits radiation generated during operation perpendicular to the cylinder axis (z) of the semiconductor layer sequence.