mhurhangee/ep-ind-claims huggingface dataset:
A job processing apparatus for storing received jobs in a storage means and sequentially executing the stored jobs, the job processing apparatus comprising: determining means arranged to determine, when a cause preventing execution of a job occurs, whether the cause preventing execution of the job has continued for a predetermined time; job execution means arranged to execute a following job prior to the job in the case that the determining means determines that the cause preventing execution of the job has continued for the predetermined time; characterized in that it comprises judgment means arranged to judge whether a predetermined operation for lifting sheets stored in a sheet feeding means to a height at which the sheets can be fed by a sheet feeding roller, in preparation for resuming the execution of the job, is being executed by the job processing apparatus; and control means arranged to restrict the execution of the following job prior to the job by the job execution means in the case that the judgment means judges that the predetermined operation for lifting sheets stored in a sheet feeding means to a height at which the sheets can be fed by a sheet feeding roller, in preparation for resuming the execution of the job, is being executed by the job processing apparatus. determining means arranged to determine, when a cause preventing execution of a job occurs, whether the cause preventing execution of the job has continued for a predetermined time; job execution means arranged to execute a following job prior to the job in the case that the determining means determines that the cause preventing execution of the job has continued for the predetermined time; judgment means arranged to judge whether a predetermined operation for lifting sheets stored in a sheet feeding means to a height at which the sheets can be fed by a sheet feeding roller, in preparation for resuming the execution of the job, is being executed by the job processing apparatus; and control means arranged to restrict the execution of the following job prior to the job by the job execution means in the case that the judgment means judges that the predetermined operation for lifting sheets stored in a sheet feeding means to a height at which the sheets can be fed by a sheet feeding roller, in preparation for resuming the execution of the job, is being executed by the job processing apparatus.
A laser level (10, 210), comprising: a control mechanism housing (20, 220) which at least partly houses a control mechanism of the laser level, the control mechanism including at least one laser, and the control mechanism housing including at least a top surface and a bottom surface; a protective structure (50, 250) extending from the control mechanism housing (20, 220), configured to protect the control mechanism from impact and including an upper structure (100, 300) which extends from the top surface of the control mechanism housing and a lower structure (150, 350) which extends from the bottom surface of the control mechanism housing; wherein the upper structure (100, 300) comprises an upper portion having a top surface and a plurality of upper legs projecting from the control mechanism housing (20, 220) to the upper portion and extending both upwardly and outwardly from the top surface of the control mechanism housing, and the lower structure (150, 350) comprises a lower portion having a bottom surface and a plurality of lower legs projecting from the control mechanism housing to the lower portion and extending both downwardly and outwardly from the bottom surface of the control mechanism housing; wherein the upper and lower portions comprise flanges (101, 102, 103, 104, 151, 152, 153, 154, 301, 302, 303, 304, 351, 352) which are spaced from the control mechanism housing (20, 220) by the legs (110, 160), and the top surface of the upper structure and the bottom surface of the lower structure being closed in shape. a control mechanism housing (20, 220) which at least partly houses a control mechanism of the laser level, the control mechanism including at least one laser, and the control mechanism housing including at least a top surface and a bottom surface; a protective structure (50, 250) extending from the control mechanism housing (20, 220), configured to protect the control mechanism from impact and including an upper structure (100, 300) which extends from the top surface of the control mechanism housing and a lower structure (150, 350) which extends from the bottom surface of the control mechanism housing; wherein the upper structure (100, 300) comprises an upper portion having a top surface and a plurality of upper legs projecting from the control mechanism housing (20, 220) to the upper portion and extending both upwardly and outwardly from the top surface of the control mechanism housing, and the lower structure (150, 350) comprises a lower portion having a bottom surface and a plurality of lower legs projecting from the control mechanism housing to the lower portion and extending both downwardly and outwardly from the bottom surface of the control mechanism housing; wherein the upper and lower portions comprise flanges (101, 102, 103, 104, 151, 152, 153, 154, 301, 302, 303, 304, 351, 352) which are spaced from the control mechanism housing (20, 220) by the legs (110, 160), and the top surface of the upper structure and the bottom surface of the lower structure being closed in shape.
A power system comprising an internal combustion engine and an exhaust gas recirculation arrangement, said power system comprising an internal combustion engine, an exhaust gas system and an intake system comprising an inlet air compressor, said exhaust gas recirculation arrangement comprising a first exhaust gas recirculation path and a second exhaust gas recirculation path for recirculating exhaust gas from said exhaust gas system to said intake system, wherein the first and second exhaust gas recirculation paths are adapted to recirculate exhaust gas from a position downstream of a turbine of the exhaust gas system to an upstream side of said inlet air compressor, in an intended direction of flow of inlet air in said power system, wherein said exhaust gas recirculation arrangement comprises a flow controller, wherein said flow controller comprises a valve connected to said second exhaust gas recirculation path, for controlling the flow volume through at least one of said first and second exhaust gas recirculation paths (24, 26), wherein said exhaust gas recirculation arrangement comprises a sensor adapted to determine a power system characteristic parameter, said power system characteristic parameter being indicative of at least the liquid content in the exhaust gas produced by said internal combustion engine and/or the liquid content in fluid removed from said exhaust gases by said exhaust gas recirculation arrangement, wherein said exhaust gas recirculation arrangement is adapted to control said flow controller in response to said power system characteristic parameter, wherein first and second exhaust gas recirculation paths (24, 26) are non-identical, wherein, in use, said first exhaust gas recirculation path is associated with a first liquid removal capability and said second exhaust gas recirculation path is associated with a second liquid removal capability, said first liquid removal capability being higher than said second liquid removal capability, characterized in that said exhaust gas recirculation arrangement comprises a liquid separator comprising a first and a second gas outlet (42, 44), said first gas outlet being in fluid communication with said first exhaust gas recirculation path and said second gas outlet being in fluid communication with said second exhaust gas recirculation path.
A side wall latch, having a bolt element held fixed in place on a side wall, on which bolt element a pivotable latch element, which can be actuated by a hand lever, of a closing device engages in the closing direction for the formfitting locking, which closing device has a spring-loaded blocking pin axially displaceable upon actuation of the hand lever, characterized in that the blocking pin is applied to the latch element to block its pivoting capability in the locked position and is blocked in the displacement direction in the unlocked position.
A device for administering a therapeutic substance to tissue for use with a pressurized gas source comprising a housing having a liquid inlet port; a gas inlet port connected to the pressurized gas source; a therapeutic substance supply assembly mounted onto said housing, the therapeutic substance supply assembly comprising at least two container connectors configured for receiving at least two containers containing a predefined quantity or concentration of a liquid therapeutic substance; and a stream jet delivery nozzle arrangement in fluid flow communication with said gas inlet port and in fluid flow communication with said therapeutic substance supply assembly, wherein the therapeutic substance supply assembly further comprises two stopcock valves operable by a user to control flow of the therapeutic substances from containers into the housing, wherein by opening or closing the stopcock valves, the therapeutic substance in one or both of the containers is allowed to enter the housing and exit from nozzle arrangement through a liquid discharge nozzle at a distal end of the device,wherein the liquid therapeutic substance of one or of both of the containers is discharged from said stream jet delivery nozzle arrangement into an elevated velocity flow of gas discharged from said stream jet delivery nozzle arrangement. a housing having a liquid inlet port; a gas inlet port connected to the pressurized gas source; a therapeutic substance supply assembly mounted onto said housing, the therapeutic substance supply assembly comprising at least two container connectors configured for receiving at least two containers containing a predefined quantity or concentration of a liquid therapeutic substance; and a stream jet delivery nozzle arrangement in fluid flow communication with said gas inlet port and in fluid flow communication with said therapeutic substance supply assembly, wherein the therapeutic substance supply assembly further comprises two stopcock valves operable by a user to control flow of the therapeutic substances from containers into the housing, wherein by opening or closing the stopcock valves, the therapeutic substance in one or both of the containers is allowed to enter the housing and exit from nozzle arrangement through a liquid discharge nozzle at a distal end of the device,wherein the liquid therapeutic substance of one or of both of the containers is discharged from said stream jet delivery nozzle arrangement into an elevated velocity flow of gas discharged from said stream jet delivery nozzle arrangement.
Blocking device for an espagnolette rod for holding or securing the open position of the espagnolette rod lock, which can be fitted to the door leaf rebate, allocated to which are latch engagements, on the frame side at a distance interval on the frame rebate, wherein, allocated to the espagnolette rod lock, on an espagnolette rod guided backwards on a faceplate, is a blocking bolt, which, in a blocking position subjected to force, prevents a longitudinal displacement of the espagnolette rod, wherein, when the leaf and frame rebates are opposite one another, the blocking bolt is displaced by means of a feeler arm of the espagnolette rod into a release position, characterized in that the feeler arm is a pin or finger, mounted so as to be capable of limited displacement corresponding to the distance interval, perpendicular to the faceplate in a frame-side housing, against a spring exerting a resetting force, and carrying a permanent magnet, allocated to which, at the faceplate, is the ferromagnetic blocking bolt, wherein, as the blocking bolt nears the fixed feeler arm, it is displaced out of the housing, such that the blocking bolt, with the feeler arm displaced beforehand, is then displaced into its release position.
A power source for actuating a subsurface tool, the power source comprising: a quantity of thermite sufficient to generate a thermite reaction when heated in excess of an ignition temperature; and a polymer disposed in association with the thermite, wherein said polymer comprises polyethylene, polypropylene, polystyrene, polyester, polyurethane, acetal, nylon, polycarbonate, vinyl, acrylin, acrylonitrile butadiene styrene, polyimide, cyclic olefin copolymer, polyphenylene sulfide, polytetrafluroethylene, polyketone, polyetheretherketone, polyetherimide, polyethersulfone, polyamide imide, styrene acrylonitrile, cellulose propionate, diallyl phthalate, or melamine formaldehyde, or combinations thereof; wherein said polymer produces a gas when the thermite reaction occurs, wherein the gas slows the thermite reaction, and wherein, in use, pressure produced by the thermite reaction, the gas, or combinations thereof, is applied to the subsurface tool to actuate the subsurface tool, and the power source is provided in operative association with a movable member of the subsurface tool, wherein the power source is placed adjacent to the movable member. a quantity of thermite sufficient to generate a thermite reaction when heated in excess of an ignition temperature; and a polymer disposed in association with the thermite, wherein said polymer comprises polyethylene, polypropylene, polystyrene, polyester, polyurethane, acetal, nylon, polycarbonate, vinyl, acrylin, acrylonitrile butadiene styrene, polyimide, cyclic olefin copolymer, polyphenylene sulfide, polytetrafluroethylene, polyketone, polyetheretherketone, polyetherimide, polyethersulfone, polyamide imide, styrene acrylonitrile, cellulose propionate, diallyl phthalate, or melamine formaldehyde, or combinations thereof; wherein said polymer produces a gas when the thermite reaction occurs, wherein the gas slows the thermite reaction, and wherein, in use, pressure produced by the thermite reaction, the gas, or combinations thereof, is applied to the subsurface tool to actuate the subsurface tool, and the power source is provided in operative association with a movable member of the subsurface tool, wherein the power source is placed adjacent to the movable member.
Dental implant having two implant parts in the form of a primary crown and a secondary crown that are to be detachably connected, wherein one of the two implant parts has a raised main body which, in the connected state, protrudes into a recess in the other of the two implant parts, wherein the primary crown or a portion of the primary crown is rotatably arrangeable about its longitudinal axis in order to be able to set it in different angular positions, characterized in that the raised main body has a rectangular cross-sectional geometry and in that at least one side wall of the raised main body is in the form of a sloped compensation wall which is oriented at an angle to the longitudinal axis of the implant part having the raised main body and extends the cross-sectional area of the main body towards its connection base with the implant part having the raised main body, wherein at least one further side wall (11a, b, c) of the main body forms an angle to the longitudinal axis of the implant part having the raised main body, which angle differs from the angle of the compensation wall to the longitudinal axis of the implant part having the raised main body.
Tilting-decoupled steering apparatus for a motorcycle comprising a handlebar bridge for receiving a motorcycle handlebar, a fork bridge for receiving a fork leg, and a decoupling element which connects the handlebar bridge to the fork bridge, the handlebar bridge being mounted rotatably about a steering axis and being fixed about a tilting axis which is orthogonal with respect to the steering axis, the fork bridge being mounted rotatably about the steering axis and about the tilting axis, the decoupling element being configured to transmit a steering movement in a steering direction about the steering axis from the handlebar bridge to the fork bridge, characterized in that the decoupling element is elastic and is configured to compensate by way of elastic deformation a tilting movement in a tilting direction about the tilting axis, orthogonal with respect to the steering axis, of the fork bridge with respect to the handlebar bridge. a handlebar bridge for receiving a motorcycle handlebar, a fork bridge for receiving a fork leg, and a decoupling element which connects the handlebar bridge to the fork bridge, the handlebar bridge being mounted rotatably about a steering axis and being fixed about a tilting axis which is orthogonal with respect to the steering axis, the fork bridge being mounted rotatably about the steering axis and about the tilting axis, the decoupling element being configured to transmit a steering movement in a steering direction about the steering axis from the handlebar bridge to the fork bridge, characterized in that the decoupling element is elastic and is configured to compensate by way of elastic deformation a tilting movement in a tilting direction about the tilting axis, orthogonal with respect to the steering axis, of the fork bridge with respect to the handlebar bridge.
Method for cryptographically secure transmission of quantum keys between structure levels (1, 2, 3) and components within a QKD-enabled network node, that is to say within a network node that is equipped with a QKD system designed to generate, together with a neighbour node in accordance with a QKD method, simultaneously in said node and in the neighbour node, existing quantum-secure keys and has multiple structure levels (1, 2, 3), having - a structure level of a manufacturer-specific key management, that is to say a key management (6; 6') defined in terms of its properties by the manufacturer of the QKD system, - a structure level of a provider-specific key management (8, 8'), that is to say a key management defined in terms of its properties by the operator of the network node, and - an application level that makes available quantum keys for a secure data exchange taking place over one of the layers of the OSI layer model, characterized in that one or more quantum keys are transmitted within the network node, namely from the structure level of the manufacturer-specific key management (6; 6') for storage in a key memory (7; 7') to the structure level of the provider-specific key management (8; 8') or from the structure level of the provider-specific key management (8; 8') for encryption of application data to the application level, in each case with quantum-secure encryption and using a PQC encryption method. - a structure level of a manufacturer-specific key management, that is to say a key management (6; 6') defined in terms of its properties by the manufacturer of the QKD system, - a structure level of a provider-specific key management (8, 8'), that is to say a key management defined in terms of its properties by the operator of the network node, and - an application level that makes available quantum keys for a secure data exchange taking place over one of the layers of the OSI layer model,
Motor vehicle electrical distribution network comprising at least two devices (3, 4, 5, 6, 7) connected to an accumulator, characterised in that at least one of the devices operates in a pulsed mode capable of creating oscillations in the network at a resonance frequency thereof and in that the network comprises at least one resistive element and one condenser that are connected in series and have values determined so that the resistive element has a resistance equal to a network damping resistance, the devices (3, 4, 5, 6, 7) and accumulator being connected by a bus having two ends, and the network comprising two damping circuits (11, 12) each adjacent to one of the ends of the bus.
An optical assembly (200, 201) comprising: an input optical port for receiving a mixed optical signal containing a combination of coherent optical wavelength channels and non-coherent optical wavelength channels; an optical demultiplexer configured to separate the combination of optical wavelength channels present on the input optical port such that a plurality of coherent optical wavelength channels and no non-coherent optical wavelength channels are provided onto a coherent optical path, and such that a plurality of non-coherent optical wavelength channels and no coherent optical wavelength channels are provided onto a non-coherent optical path; a dispersive element (241, 242) disposed in one or both of the coherent and non-coherent optical paths and that operates such that a different amount of dispersion is applied to the plurality of non-coherent optical wavelength channels traveling through the non-coherent optical path than the amount of dispersion, if any, that is applied to the coherent optical path; and an optical multiplexer configured to receive and combine the optical wavelength channels from the coherent and non-coherent optical paths to form a mixed coherent and non-coherent optical output signal on an output of the optical multiplexer. an input optical port for receiving a mixed optical signal containing a combination of coherent optical wavelength channels and non-coherent optical wavelength channels; an optical demultiplexer configured to separate the combination of optical wavelength channels present on the input optical port such that a plurality of coherent optical wavelength channels and no non-coherent optical wavelength channels are provided onto a coherent optical path, and such that a plurality of non-coherent optical wavelength channels and no coherent optical wavelength channels are provided onto a non-coherent optical path; a dispersive element (241, 242) disposed in one or both of the coherent and non-coherent optical paths and that operates such that a different amount of dispersion is applied to the plurality of non-coherent optical wavelength channels traveling through the non-coherent optical path than the amount of dispersion, if any, that is applied to the coherent optical path; and an optical multiplexer configured to receive and combine the optical wavelength channels from the coherent and non-coherent optical paths to form a mixed coherent and non-coherent optical output signal on an output of the optical multiplexer.