mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: an optical transceiver having a first port, a second port and an optical switch coupled to the first port and the second port, the optical switch including a first switch coupled to the first port, a second switch coupled to the second port, and an optical coupler coupled to the first port via the first switch and the second port via the second switch, wherein the first switch is switchable between a pass state and a block state and the second switch is switchable between a pass state and a block state, the optical switch switchable between a unidirectional port operation mode and a bidirectional port operation mode, when the optical switch is in the unidirectional port operation mode, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, when the optical switch is in the bidirectional port operation mode, the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal. an optical transceiver having a first port, a second port and an optical switch coupled to the first port and the second port, the optical switch including a first switch coupled to the first port, a second switch coupled to the second port, and an optical coupler coupled to the first port via the first switch and the second port via the second switch, wherein the first switch is switchable between a pass state and a block state and the second switch is switchable between a pass state and a block state, the optical switch switchable between a unidirectional port operation mode and a bidirectional port operation mode, when the optical switch is in the unidirectional port operation mode, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, the first port configured to send a first optical signal, and the second port configured to receive a second optical signal, when the optical switch is in the bidirectional port operation mode, the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal. the first port configured to send the first optical signal and receive the second optical signal, and the second port configured to detect a third optical signal and not receive the first optical signal and the second optical signal.
Electron multi-beamlet lithography system comprising: - a beamlet generator for generating a plurality of electron beamlets; - a plurality of beamlet manipulator elements (58, 59, 70, 71, 72, 102, 103, 105, 108, 109, 110) for manipulating the electron beamlets, wherein each beamlet manipulator element comprising a plurality of apertures through which the plurality of beamlets pass; and - an arrangement adapted to generate plasma and radicals created therein and to direct the radicals onto a surface of one or more of the beamlet manipulator elements, the arrangement comprising: - a plasma generator comprising a chamber in which the plasma is to be formed, the chamber comprising an inlet for receiving an input gas, and a plurality of outlets for removal of the plasma and radicals created therein; - a hollow guiding body for guiding radicals formed in the plasma towards the plurality of apertures of the one or more beamlet manipulator elements (58, 59, 70, 71, 72, 102, 103, 105, 108, 109, & 110) at which contaminant deposition is to be removed; and wherein the chamber is provided with a flow restrictor and the flow restrictor is a perforated wall creating the plurality of outlets; and the arrangement further comprising means (40, 45) configured to arrange a temporary increase of pressure within the chamber to form a flow with sufficient strength to drag along radicals. - a beamlet generator for generating a plurality of electron beamlets; - a plurality of beamlet manipulator elements (58, 59, 70, 71, 72, 102, 103, 105, 108, 109, 110) for manipulating the electron beamlets, wherein each beamlet manipulator element comprising a plurality of apertures through which the plurality of beamlets pass; and - an arrangement adapted to generate plasma and radicals created therein and to direct the radicals onto a surface of one or more of the beamlet manipulator elements, the arrangement comprising: - a plasma generator comprising a chamber in which the plasma is to be formed, the chamber comprising an inlet for receiving an input gas, and a plurality of outlets for removal of the plasma and radicals created therein; - a hollow guiding body for guiding radicals formed in the plasma towards the plurality of apertures of the one or more beamlet manipulator elements (58, 59, 70, 71, 72, 102, 103, 105, 108, 109, & 110) at which contaminant deposition is to be removed; and
A hydraulic transmission comprising a hydraulic pump, a hydraulic motor, a high pressure line connecting an output of the hydraulic pump to an input of the hydraulic motor and a low pressure line connecting an output of the hydraulic pump to an input of the hydraulic motor, and a transmission controller, wherein the hydraulic pump and the hydraulic motor each comprise a low pressure manifold in communication with the low pressure line, a high pressure manifold in communication with the high pressure line, a plurality of cylinders and a plurality of valves (118, 128) for regulating the flow of working fluid between each cylinder and the low and high pressure manifolds, at least one valve associated with each cylinder being an electronically controlled valve which is actively controllable on each cycle of cylinder volume to select whether each cylinder undergoes an active cycle in which there is a net displacement of working fluid or an inactive cycle in which there is no net displacement of working fluid, characterized in that, in at least one operating mode, one of the hydraulic pump or the hydraulic motor is operated with a discontinuous range of displacements of working fluid and the other of the hydraulic pump or the hydraulic motor is operated with a continuous range of displacements of working fluid, and the transmission controller is configured to control the displacement of said other of the hydraulic pump and the hydraulic motor being operated with the continuous range of displacements so as to vary the pressure in the high pressure manifold to allow the input and output torque of the transmission to be varied across continuous ranges and to obtain desired values of the input and output torque while said one of the hydraulic pump or the hydraulic motor is operated in the discontinuous range of displacements.
A method of manufacturing an implantable neural electrode comprising: cutting a metal layer to form a plurality of electrode sites, contact pads and metal traces, wherein the metal layer is about 5 μm to 25 μm thick and wherein the metal traces connect one or more electrode sites to one or more contact pads; forming a first silicone layer (406, 506) by: knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; coupling the metal layer to the first silicone layer; forming a second silicone layer (412, 508) by calendaring silicone to a thickness between about 50 μm and about 100 μm; laminating the first silicone layer to the second silicone layer such that the metal layer is positioned between the first silicone layer and the second silicone layer; forming a first set of holes in the first or second silicone layers (506, 508) to expose one or more electrode sites and a second set of holes (414, 514) in the first or second silicone layers (406, 506, 518) to expose one or more contact pads in the metal layer; after exposing the one or more contact pads, welding one or more wires (416, 516) to the one or more exposed contact pads; and overmolding a third silicone layer (418, 518) over the one or more welded contact pads and a portion of the wires. cutting a metal layer to form a plurality of electrode sites, contact pads and metal traces, wherein the metal layer is about 5 μm to 25 μm thick and wherein the metal traces connect one or more electrode sites to one or more contact pads; forming a first silicone layer (406, 506) by: knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; knife-coating a polymer mesh with silicone, such that the first silicone layer has a thickness between about 50 μm and about 100 μm, and curing the first silicone layer; coupling the metal layer to the first silicone layer; forming a second silicone layer (412, 508) by calendaring silicone to a thickness between about 50 μm and about 100 μm; laminating the first silicone layer to the second silicone layer such that the metal layer is positioned between the first silicone layer and the second silicone layer; forming a first set of holes in the first or second silicone layers (506, 508) to expose one or more electrode sites and a second set of holes (414, 514) in the first or second silicone layers (406, 506, 518) to expose one or more contact pads in the metal layer; after exposing the one or more contact pads, welding one or more wires (416, 516) to the one or more exposed contact pads; and overmolding a third silicone layer (418, 518) over the one or more welded contact pads and a portion of the wires.
A heat transfer tube for use in a fluidized bed of a fluidized-bed boiler, the heat transfer tube comprising: a water tube through which a fluid flows; a thin protector, and a thick protector made of casting which are provided at an outer circumferential side of the water tube and are configured to protect the water tube; characterized by a heat-insulating layer provided between the water tube and the thin protector; and an additional fixing jig; wherein the fixing jig is fixed to the thick protector to cause the fixing jig to hold the thin protector provided at the outer circumferential side of the water tube; the fixing jig is fixed to the thick protector by a fitting structure; and the fitting structure comprises a guide groove provided in one of the fixing jig and the thick protector, and a projecting portion provided on the other one of the fixing jig and the thick protector. a water tube through which a fluid flows; a thin protector, and a thick protector made of casting which are provided at an outer circumferential side of the water tube and are configured to protect the water tube; characterized by a heat-insulating layer provided between the water tube and the thin protector; and an additional fixing jig; wherein the fixing jig is fixed to the thick protector to cause the fixing jig to hold the thin protector provided at the outer circumferential side of the water tube; the fixing jig is fixed to the thick protector by a fitting structure; and the fitting structure comprises a guide groove provided in one of the fixing jig and the thick protector, and a projecting portion provided on the other one of the fixing jig and the thick protector.
Method for redistributing a laundry load in a drum of a washing machine in order to reduce the unbalance generated to the nonuniform distribution of said laundry load in said drum, the redistribution of the laundry load being carried out by running the drum speed below or slightly below a settling speed which depends on the amount of the laundry load, wherein said washing machine comprises: a casing, a laundry drum mounted inside the casing to rotate about a rotation axis, an electric motor designed to rotate said laundry drum about said rotation axis, and an electronic control system, the method being characterized by comprising the following steps: - generating a sinusoidal motor speed profile (RS(t)), - controlling said electric motor based on said sinusoidal motor speed profile, - estimating unbalance value indicative of the unbalance of said load in the laundry drum, - estimating an inertia value indicative of the inertia of the load in the laundry drum, - varying the amplitude of said sinusoidal speed profile based on said estimated unbalance value and said inertia value, - controlling said electric motor based on said modified sinusoidal motor speed profile. - generating a sinusoidal motor speed profile (RS(t)), - controlling said electric motor based on said sinusoidal motor speed profile, - estimating unbalance value indicative of the unbalance of said load in the laundry drum, - estimating an inertia value indicative of the inertia of the load in the laundry drum, - varying the amplitude of said sinusoidal speed profile based on said estimated unbalance value and said inertia value, - controlling said electric motor based on said modified sinusoidal motor speed profile.
Apparatus for producing packs for cigarettes, in particular of the hinge lid type, comprising a folding turret which is rotationally driven in particular in a clocked manner and has pockets, which are distributed over the circumference, for receiving a blank for a pack and for receiving a pack contents, wherein the blank is folded while being transported on the folding turret, wherein the pockets are assigned folding members for folding lid corner tabs of the respective blank and for holding the folded lid corner tabs in the folded position during rotation of the folding turret, characterized in that the folding members are arranged on the folding turret so as to rotate together, wherein each pocket is assigned more than one, in particular two, folding members for folding in each case at least one lid corner tab of a blank after feeding a pack contents into the respective pocket, and in that the folding members are movable by a free end into the pockets, wherein the folding members have a curved design at least in the region of the free end, and wherein the folding members have a decreasing dimension toward the free end in such a manner that the folding members are pivotable out between the folded-over lid corner tabs and a lid end wall of the blank which is subsequently to be gradually folded onto the lid corner tabs.
A method of manufacturing a printing blanket, the printing blanket comprising an elastic body, and a sheet bonded to a curved surface of the elastic body, the printing blanket being configured to press a surface of the sheet against a surface to be printed, to thereby perform printing, the method comprising: mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive, characterized in that the method further comprises fixing the sheet at a periphery of a region of the sheet to be bonded to the elastic body and in that during pressing the sheet is brought into close contact with the elastic body through intermediation of the adhesive while stretching the sheet along the curved surface of the elastic body. the printing blanket comprising an elastic body, and a sheet bonded to a curved surface of the elastic body, the printing blanket being configured to press a surface of the sheet against a surface to be printed, to thereby perform printing, the method comprising: mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive, mounting the elastic body with a bonding surface of the elastic body being opposed to a bonding surface of the sheet; applying an adhesive to at least one of the bonding surface of the sheet and the bonding surface of the elastic body; and pressing the bonding surface of the sheet and the bonding surface of the elastic body against each other so as to bring the sheet into close contact with the elastic body through intermediation of the adhesive,
An irrigation dispenser with self-regulated flow, including a hollow body defining, inside it, an upstream recess communicating with an intake opening, and a downstream recess communicating with an outlet opening, said upstream and downstream recesses (9, 11) being separated from one another by an elastic membrane, the elastic membrane being able to be deformed by being pressed against a bearing surface provided in the downstream recess so as to close the free access to said outlet opening, a slot being provided in said bearing surface so as to define, by cooperating with the membrane, a flow regulating channel with a variable section including, at one of its ends, an inlet from the downstream recess and at its opposite end, an outlet toward said outlet opening, said bearing surface of the membrane in said downstream recess assuming the form of an arch defining the maximum deformation of the membrane toward the inside of said downstream recess, characterized in that said elastic membrane is pierced with a flow aperture and in that said flow aperture is arranged across from said inlet of said regulating channel defined by the slot in the downstream recess.
A system for marking on a recording medium the location of tissue sections imaged by a microscope with respect to the surface of the tissue in which the microscope has optics through which the microscope images the tissue, said system comprising: the microscope and the recording medium; means for stabilizing said tissue to said optics and localizing a portion of the surface of said tissue to said optics; means (42, 46) for selecting one or more tissue sections imaged by said microscope to be marked; means for obtaining location information representing the location in the tissue of each said selected tissue section with respect to the surface of said tissue; and means for producing marks on the recording medium in accordance with said location information indicating the location on said surface of the tissue of said selected tissue sections; characterized by an adhesive layer on the recording medium for holding the recording medium onto the tissue surface. the microscope and the recording medium; means for stabilizing said tissue to said optics and localizing a portion of the surface of said tissue to said optics; means (42, 46) for selecting one or more tissue sections imaged by said microscope to be marked; means for obtaining location information representing the location in the tissue of each said selected tissue section with respect to the surface of said tissue; and means for producing marks on the recording medium in accordance with said location information indicating the location on said surface of the tissue of said selected tissue sections; an adhesive layer on the recording medium for holding the recording medium onto the tissue surface.
A method for producing a lipidic film comprising the steps of: (i) dissolving a lipid mix in isopropanol to form a homogeneous mix; and (ii) removing the isopropanol from the homogeneous mix to form a lipidic film, wherein the lipid mix comprises a lipid, cholesterol and a lipopolysaccharide, wherein the total amount of lipid mix dissolved in isopropanol is 200g or more (i) dissolving a lipid mix in isopropanol to form a homogeneous mix; and (ii) removing the isopropanol from the homogeneous mix to form a lipidic film,
A method of transmitting and receiving data in a wireless access system for supporting carrier aggregation, the method comprising: transmitting downlink control information, DCI, for scheduling downlink data on a physical downlink control channel, PDCCH, in a first subframe; and transmitting the downlink data scheduled according to the DCI on a physical downlink shared channel, PDSCH, in a second subframe, which is not the first subframe, when cross subframe scheduling is configured, characterized in that the DCI comprises a subframe indicator field, SIF, indicating the second subframe for transmission of the downlink data, wherein the SIF is allocated in the PDCCH when the cross subframe scheduling is configured, wherein the SIF is configured by one or more additional bits added to the bit size of the DCI format, wherein same bits of the SIF indicate the second subframe differently, for a case when a direct mapping method is applied and for a case when a radio resource control, RRC, configured method is applied, and wherein the direct mapping method is a scheme for determining the second subframe by using only the SIF, and the RRC configured method is a scheme for determining the second subframe by referring to a RRC signaling indicating a subframe. transmitting downlink control information, DCI, for scheduling downlink data on a physical downlink control channel, PDCCH, in a first subframe; and transmitting the downlink data scheduled according to the DCI on a physical downlink shared channel, PDSCH, in a second subframe, which is not the first subframe, when cross subframe scheduling is configured,
A vehicle comprising: a fuel cell; a cooling device configured to cool the fuel cell by exchanging heat with a coolant; a smart key system configured to communicate with a mobile device and performs authentication of the mobile device; and a control device configured to control the fuel cell and the cooling device, wherein the cooling device includes: a circulation flow path configured to connect the fuel cell and a radiator; a pump configured to circulate the coolant in the circulation flow path; a bypass flow path configured to connect an upstream side and a downstream side of the radiator in the circulation flow path; a flow path switching valve configured to switch a destination of the coolant that passes through the fuel cell to circulate to a radiator side and a bypass flow path side; and a motor configured to drive the flow path switching valve, and wherein the control device is configured to, when the smart key system performs the authentication of the mobile device, stop an operation of the flow path switching valve simultaneously with limiting output of the fuel cell. a fuel cell; a cooling device configured to cool the fuel cell by exchanging heat with a coolant; a smart key system configured to communicate with a mobile device and performs authentication of the mobile device; and a control device configured to control the fuel cell and the cooling device, a circulation flow path configured to connect the fuel cell and a radiator; a pump configured to circulate the coolant in the circulation flow path; a bypass flow path configured to connect an upstream side and a downstream side of the radiator in the circulation flow path; a flow path switching valve configured to switch a destination of the coolant that passes through the fuel cell to circulate to a radiator side and a bypass flow path side; and a motor configured to drive the flow path switching valve, and