mhurhangee/ep-ind-claims huggingface dataset:
A method for accessing data in a dynamic random access memory, DRAM, comprising: providing to the DRAM, by a memory controller, a command having a selectable channel broadcast mode indication, the command associated with requested data; concurrently accessing, by the memory controller, a first portion of the requested data in the DRAM via a first channel and a second portion of the requested data in the DRAM via a second channel in response to the command when a state of the channel broadcast mode indication indicates a broadcast mode; and accessing, by the memory controller, the requested data in the DRAM via a selected one of the first and second channels in response to the command when the state of the channel broadcast mode indication indicates a non-broadcast mode. providing to the DRAM, by a memory controller, a command having a selectable channel broadcast mode indication, the command associated with requested data; concurrently accessing, by the memory controller, a first portion of the requested data in the DRAM via a first channel and a second portion of the requested data in the DRAM via a second channel in response to the command when a state of the channel broadcast mode indication indicates a broadcast mode; and accessing, by the memory controller, the requested data in the DRAM via a selected one of the first and second channels in response to the command when the state of the channel broadcast mode indication indicates a non-broadcast mode.
A method for preparing a lithium iron phosphate nanopowder coated with carbon, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous glycol-based solvent; (b) putting the mixture solution into a reactor, heating and concentrating to prepare a metal glycolate slurry; (c) drying the metal glycolate slurry to form a solid content; and (d) firing the solid content to prepare the lithium iron phosphate nanopowder coated with carbon, wherein the heating and concentrating in Step (b) is performed under pressure conditions less than or equal to 10 bar, wherein the carbon coating is formed by carbonizing the non-aqueous glycol-based solvent, wherein the glycol-based solvent is selected from the group consisting of ethylene glycol, diethylene glycol and 1,4-butandiol wherein second particles are obtained through agglomerating a plurality of first particles (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a non-aqueous glycol-based solvent; (b) putting the mixture solution into a reactor, heating and concentrating to prepare a metal glycolate slurry; (c) drying the metal glycolate slurry to form a solid content; and (d) firing the solid content to prepare the lithium iron phosphate nanopowder coated with carbon,
Plug connector embodied from a base body, at least one latching means and also a first actuating means and a second actuating means, wherein the base body is provided so as to receive contact means and the at least one latching means are provided so as to lock the plug connector to a mating plug connector, wherein the first actuating means is arranged on the base body in such a manner that said actuating means can be displaced axially in the plugging direction and the first actuating means when being displaced in the opposite direction to the plugging direction acts with a force upon the at least one latching means in such a manner that a locking arrangement with respect to the mating plug connector is released, wherein an axial force that acts in the plugging direction can be transferred to the base body by means of the second actuating means, wherein the second actuating means is arranged on the base body of the plug connector in such a manner that it can be displaced axially in the plugging direction, and wherein the first actuating means and the second actuating means are embodied as one part, characterized in that the force that can be transferred from the second actuating means to the base body is limited, wherein a blocking element is provided on the plug connector, said blocking element preventing the second actuating means from moving in the plugging direction without the contacted mating plug connector.
An analysis method using an X-ray fluorescence analyzer which acquires an X-ray spectrum by detecting a secondary X-ray emitted from a specimen when the specimen is irradiated with a primary X-ray, the method comprising: acquiring a first X-ray spectrum, with a take-off angle of the secondary X-ray being set as a first take-off angle (θ1); acquiring a second X-ray spectrum, with a take-off angle of the secondary X-ray being set as a second take-off angle (θ2) that is different from the first take-off angle (θ1); and obtaining information on an analysis target element in a depth direction of the specimen based on the first X-ray spectrum and the second X-ray spectrum, the specimen including first to Nth layers (N≥2), and the method is characterised in that the step of obtaining information on the analysis target element including: calculating Function FS which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on the first X-ray spectrum and the second X-ray; creating Model Function FM which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on estimated concentrations of elements contained in each of the first to Nth layers; and obtaining a ratio of the amounts of the analysis target element in the first to Nth layers by comparing Function FS with Model Function FM. acquiring a first X-ray spectrum, with a take-off angle of the secondary X-ray being set as a first take-off angle (θ1); acquiring a second X-ray spectrum, with a take-off angle of the secondary X-ray being set as a second take-off angle (θ2) that is different from the first take-off angle (θ1); and obtaining information on an analysis target element in a depth direction of the specimen based on the first X-ray spectrum and the second X-ray spectrum, the specimen including first to Nth layers (N≥2), and the method is characterised in that the step of obtaining information on the analysis target element including: calculating Function FS which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on the first X-ray spectrum and the second X-ray; creating Model Function FM which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on estimated concentrations of elements contained in each of the first to Nth layers; and obtaining a ratio of the amounts of the analysis target element in the first to Nth layers by comparing Function FS with Model Function FM. calculating Function FS which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on the first X-ray spectrum and the second X-ray; creating Model Function FM which represents a change in X-ray intensity of the analysis target element when a take-off angle is changed, based on estimated concentrations of elements contained in each of the first to Nth layers; and obtaining a ratio of the amounts of the analysis target element in the first to Nth layers by comparing Function FS with Model Function FM.
A parametric resonance magnetometer comprising: - a cell filled with an atomic gas; - an optical pumping source arranged so as to emit a light beam in the direction of the cell; - a device for polarising the light beam configured so that by the effect of the light beam, the atomic gas simultaneously acquires a state aligned according to an alignment direction ( x) and a state oriented according to an orientation direction ( z); - a parametric resonance excitation source (7, 8) configured so as to generate a radiofrequency magnetic field in the cell; - a device for detecting parametric resonances configured so as to measure the absorption of the light beam by the atomic gas; characterized in that the parametric resonance excitation source (7, 8) is configured so that the radiofrequency magnetic field generated in the cell consists of two components orthogonal to one another and each oscillating at its natural oscillation frequency, and wherein the light beam crosses the cell according to a direction of propagation, the polarisation device being configured so that the alignment direction is orthogonal to the direction of propagation of the light beam and the orientation direction is longitudinal to the direction of propagation of the light beam and the parametric resonance excitation source is configured so that said two components comprise a component longitudinal to the orientation direction at a direction longitudinal to the alignment direction. - a cell filled with an atomic gas; - an optical pumping source arranged so as to emit a light beam in the direction of the cell; - a device for polarising the light beam configured so that by the effect of the light beam, the atomic gas simultaneously acquires a state aligned according to an alignment direction ( x) and a state oriented according to an orientation direction ( z); - a parametric resonance excitation source (7, 8) configured so as to generate a radiofrequency magnetic field in the cell; - a device for detecting parametric resonances configured so as to measure the absorption of the light beam by the atomic gas;
Mobile platform intended to be suspended by suspension cables having an anchoring end attached to a spatially fixed structure, the mobile platform comprising: - a motor assembly having motorized winding drums, each being intended to be secured to an associated cable from among the suspension cables in order to wind up or unwind the associated cable, - a support structure for supporting the motor assembly, the mobile platform being characterized in that it comprises a suspension platform rigidly secured to the support structure and arranged, along a reference axis of the mobile platform, at a distance from the winding drums of the motor assembly, the suspension platform comprising deflection members, each being at a distance from an associated drum from among the winding drums and being configured to deflect the cable associated with the associated drum, between the associated drum and the anchoring end of the associated cable, into a suspended position of the mobile platform, wherein the reference axis is vertical and the suspension platform is located above the winding drums. - a motor assembly having motorized winding drums, each being intended to be secured to an associated cable from among the suspension cables in order to wind up or unwind the associated cable, - a support structure for supporting the motor assembly, the mobile platform being characterized in that it comprises a suspension platform rigidly secured to the support structure and arranged, along a reference axis of the mobile platform, at a distance from the winding drums of the motor assembly, the suspension platform comprising deflection members, each being at a distance from an associated drum from among the winding drums and being configured to deflect the cable associated with the associated drum, between the associated drum and the anchoring end of the associated cable, into a suspended position of the mobile platform, wherein the reference axis is vertical and the suspension platform is located above the winding drums.
A free-space optical signal receiver for accommodating wavefront aberrations in an arriving phase encoded optical signal comprising: at least one optical resonator defining a plurality of regions, an aperture to allow optical signal energy to enter, and an output to allow a portion of optical signal energy to be emitted, the at least one optical resonator configured to receive an optical signal via the aperture, to accumulate resonant optical signal energy at least within each region, to cause the emitted optical signal energy associated with each region to approach a steady-state output value, and to disturb the emitted optical signal energy associated with each region upon a transition in the received optical signal, the at least one optical resonator having at least one dimension to cause phase alignment of the accumulated optical signal energy at one or more resonant wavelengths; and a detector aligned with the output and configured to detect the disturbance to the emitted optical signal energy from one or more of the regions, and to determine a characteristic of the transition in the received optical signal based upon the disturbance, characterised in that the at least one optical resonator includes a plurality of optical resonators, each of the plurality of optical resonators defining at least one of the plurality of regions to act on an optical signal independently of adjacent and/or other resonators of the plurality of resonators.
A crane, in particular a tower crane, with a boom rotatably mounted about an upright axis of rotation and an out-of-service brake which permits and slows down the rotary movements of the boom in the out-of-service condition of the crane under wind loads, characterized in that the out-of-service brake is formed to operate in a rotational-speed-dependent manner such that the applied braking torque is greater at a greater rotational speed of the crane than at a lower rotational speed of the crane.
Circuit breaker (300, 300A) for a gas insulated switch gear, comprising: - a vacuum interrupter comprising a first movable contact, a second stationary contact and a first center axis, - a first insulator, - a contact unit arranged at the first insulator, wherein the first movable contact is movable towards the contact unit so as to be connected to the contact unit, - an electrical conducting unit comprising a first side and a second side, wherein the first side and the second side are opposite to each other, wherein the vacuum interrupter is arranged at the first side of the electrical conducting unit, - a second insulator, wherein the second insulator is arranged at the second side of the electrical conducting unit, wherein the second insulator is mechanically connected to the second stationary contact, characterized in that the second insulator has a second center axis, and wherein the second center axis of the second insulator is parallel to or collinear with the first center axis of the vacuum interrupter, and wherein the contact unit is arranged at an insulating push rod. - a vacuum interrupter comprising a first movable contact, a second stationary contact and a first center axis, - a first insulator, - a contact unit arranged at the first insulator, wherein the first movable contact is movable towards the contact unit so as to be connected to the contact unit, - an electrical conducting unit comprising a first side and a second side, wherein the first side and the second side are opposite to each other, wherein the vacuum interrupter is arranged at the first side of the electrical conducting unit, - a second insulator, wherein the second insulator is arranged at the second side of the electrical conducting unit, wherein the second insulator is mechanically connected to the second stationary contact, characterized in that the second insulator has a second center axis, and wherein the second center axis of the second insulator is parallel to or collinear with the first center axis of the vacuum interrupter,
Method for controlling the lateral position of a vehicle on a traffic lane, the method comprising: - a first step of automatically controlling the lateral position of the vehicle following a first reference trajectory, and - a first step of monitoring the lateral distance separating the vehicle from an edge (BD, BG) of the traffic lane, the first monitoring step comprising a substep of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a first threshold, then - a step of detecting a command applied to a steering wheel of the vehicle by a driver for shifting the vehicle toward an edge of the traffic lane, then - stopping the first monitoring step, - a second step of automatically controlling the lateral position of the vehicle following a second reference trajectory, the second trajectory being determined according to the command applied to the steering wheel by the driver, and - a second step of monitoring the lateral distance separating the vehicle from an edge of the traffic lane, the second monitoring step comprising a substep of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a second threshold, the second threshold being strictly less than the first threshold. - a first step of automatically controlling the lateral position of the vehicle following a first reference trajectory, and - a first step of monitoring the lateral distance separating the vehicle from an edge (BD, BG) of the traffic lane, the first monitoring step comprising a substep of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a first threshold, then - a step of detecting a command applied to a steering wheel of the vehicle by a driver for shifting the vehicle toward an edge of the traffic lane, then - stopping the first monitoring step, - a second step of automatically controlling the lateral position of the vehicle following a second reference trajectory, the second trajectory being determined according to the command applied to the steering wheel by the driver, and - a second step of monitoring the lateral distance separating the vehicle from an edge of the traffic lane, the second monitoring step comprising a substep of alerting the driver if the lateral distance separating the vehicle from the edge of the traffic lane is less than or equal to a second threshold, the second threshold being strictly less than the first threshold.
An oven comprising a walled enclosure having a sealable aperture providing an access passageway to the interior of the walled enclosure, and a door for selectively sealing the sealable aperture, a heating element (17, 19), a thermostat and a heating element controller responsive to the thermostat, wherein the walls (3, 5, 7, 9, 11) of the walled enclosure and the door each comprise an inner layer, an outer layer, and an insulation layer (29, 31) intermediate the inner layer and the outer layer, in which the insulation layer comprises an aerogel material, characterized in that the aerogel material is encapsulated in a packaging material and in that the packaging material encapsulating the aerogel material comprises a metal foil material.
A method for stripping metal deposited on a cathode plate, wherein the cathode plate has a first sheet of metal deposited on a first side and a second sheet of metal deposited on a second side, with a bridge of metal formed at a lower edge of the cathode plate interconnecting the first sheet of metal with the second sheet of metal, the method comprising: moving a first stripping apparatus with a first robotic arm (46, 48) to separate the first sheet of metal from the first side of the cathode plate, moving a second stripping apparatus with a second robotic arm to separate the second sheet of metal from the second side of the cathode plate, wherein the first sheet of metal and second sheet of metal remain interconnected by the bridge of metal at the lower edge, gripping the cathode plate with a first gripping apparatus (62, 63), the first gripping apparatus (62, 63) being associated with the first robotic arm (46, 48), and operating the first robotic arm (46, 48) to remove the cathode plate from a stripping station and place the cathode plate into a storage region or a transport region, and gripping one or both of the first sheet of metal and second sheet of metal using a second gripping apparatus (62', 63') associated with the second robotic arm, and operating the second robotic arm to move the first sheet of metal and the second sheet of metal to a metal storage region or a metal transport region. moving a first stripping apparatus with a first robotic arm (46, 48) to separate the first sheet of metal from the first side of the cathode plate, moving a second stripping apparatus with a second robotic arm to separate the second sheet of metal from the second side of the cathode plate, wherein the first sheet of metal and second sheet of metal remain interconnected by the bridge of metal at the lower edge, gripping the cathode plate with a first gripping apparatus (62, 63), the first gripping apparatus (62, 63) being associated with the first robotic arm (46, 48), and operating the first robotic arm (46, 48) to remove the cathode plate from a stripping station and place the cathode plate into a storage region or a transport region, and gripping one or both of the first sheet of metal and second sheet of metal using a second gripping apparatus (62', 63') associated with the second robotic arm, and operating the second robotic arm to move the first sheet of metal and the second sheet of metal to a metal storage region or a metal transport region.
A hair grooming device comprising: a body that includes a lower housing and a removable cover, the lower housing defining a substantially hollow cavity, the lower housing formed of a first material; a liner received by the lower housing in the cavity, the liner formed of a second material, wherein the second material is different than the first material, and wherein the liner includes a plurality of compartments (78, 82, 86); and a drive assembly positioned within the cavity, the liner positioned between the drive assembly and the lower housing, wherein the drive assembly is received in at least a first compartment that is electrically isolated from a second compartment. a body that includes a lower housing and a removable cover, the lower housing defining a substantially hollow cavity, the lower housing formed of a first material; a liner received by the lower housing in the cavity, the liner formed of a second material, wherein the second material is different than the first material, and wherein the liner includes a plurality of compartments (78, 82, 86); and a drive assembly positioned within the cavity, the liner positioned between the drive assembly and the lower housing, wherein the drive assembly is received in at least a first compartment that is electrically isolated from a second compartment.