mhurhangee/patent-ind-claim-en huggingface dataset:
A device for continuously performing grain boundary diffusion and heat treatment, wherein: an alloy workpiece or a metal workpiece is disposed in a relatively independent processing box together with a diffusion source; said device comprising: a grain boundary diffusion chamber, a first cooling chamber, a heat treatment chamber, a second cooling chamber, wherein the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber are disposed in sequence by means of airtight devices, and a transfer system disposed among the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber to transfer the relatively independent processing box; both the first cooling chamber and the second cooling chamber adopt an air cooling system; a cooling air temperature of the first cooling chamber is 25 °C or above and differs from a grain boundary diffusion temperature of the grain boundary diffusion chamber by at least 550 °C; a cooling air temperature of the second cooling chamber is 25 °C or above and differs from a heat treatment temperature of the heat treatment chamber by at least 300 °C; and a pressure of the first cooling chamber and a pressure of the second cooling chamber are 50 kPa-100 kPa. an alloy workpiece or a metal workpiece is disposed in a relatively independent processing box together with a diffusion source; said device comprising: a grain boundary diffusion chamber, a first cooling chamber, a heat treatment chamber, a second cooling chamber, wherein the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber are disposed in sequence by means of airtight devices, and a transfer system disposed among the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber to transfer the relatively independent processing box; a grain boundary diffusion chamber, a first cooling chamber, a heat treatment chamber, a second cooling chamber, wherein the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber are disposed in sequence by means of airtight devices, and a transfer system disposed among the grain boundary diffusion chamber, the first cooling chamber, the heat treatment chamber, and the second cooling chamber to transfer the relatively independent processing box; both the first cooling chamber and the second cooling chamber adopt an air cooling system; a cooling air temperature of the first cooling chamber is 25 °C or above and differs from a grain boundary diffusion temperature of the grain boundary diffusion chamber by at least 550 °C; a cooling air temperature of the second cooling chamber is 25 °C or above and differs from a heat treatment temperature of the heat treatment chamber by at least 300 °C; and a pressure of the first cooling chamber and a pressure of the second cooling chamber are 50 kPa-100 kPa.
A system to process blended seismic signals, comprising: one or more processors configured to: receive blended seismic signals detected by a plurality of nodal seismic sensor units that records seismic signals generated by a plurality of seismic sources of a survey region, the nodal seismic sensor units including a geophone , a clock , a power source , wrap around memory, and an accelerometer; select a timing function that includes a ratio of a dither time to a shot interval used to perform a seismic survey that is less than or equal to 1⁄2, wherein the dither time indicates a delay between two shots from two different seismic sources of the plurality of seismic sources and the shot interval indicates a delay between two shots from an individual seismic source of the plurality of seismic sources; and deblend, based on the timing function, the blended seismic signals to generate data representing subsurface structures indicative of oil or gas. receive blended seismic signals detected by a plurality of nodal seismic sensor units that records seismic signals generated by a plurality of seismic sources of a survey region, the nodal seismic sensor units including a geophone , a clock , a power source , wrap around memory, and an accelerometer; select a timing function that includes a ratio of a dither time to a shot interval used to perform a seismic survey that is less than or equal to 1⁄2, wherein the dither time indicates a delay between two shots from two different seismic sources of the plurality of seismic sources and the shot interval indicates a delay between two shots from an individual seismic source of the plurality of seismic sources; and deblend, based on the timing function, the blended seismic signals to generate data representing subsurface structures indicative of oil or gas.
A personal care product system comprising: a stand ; a first stand permanent docking magnet positioned within the stand ; a stand inductive charging coil positioned within the stand ; a handle removably mounted to the stand ; a rechargeable battery positioned within the handle ; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet ; a handle inductive charging coil positioned within the handle , wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery when placed in proximity to the handle inductive charging coil ; characterised in that the system further comprises a handle flux guiding member having at least a portion positioned within the handle inductive charging coil ; and a stand flux guiding member having at least a portion positioned within the stand inductive charging coil . a stand ; a first stand permanent docking magnet positioned within the stand ; a stand inductive charging coil positioned within the stand ; a handle removably mounted to the stand ; a rechargeable battery positioned within the handle ; a first handle permanent docking magnet positioned within the handle configured to generate an attraction force sufficient to hold the handle to the stand when placed in proximity to the first stand permanent docking magnet ; a handle inductive charging coil positioned within the handle , wherein the stand inductive charging coil is configured to generate a magnetic field that penetrates the handle inductive charging coil to charge the rechargeable battery when placed in proximity to the handle inductive charging coil ; characterised in that the system further comprises a handle flux guiding member having at least a portion positioned within the handle inductive charging coil ; and a stand flux guiding member having at least a portion positioned within the stand inductive charging coil .
A passive actuator configured for suppressing a vibration of a column pipe of a vertical pump wherein the actuator is adapted for being mounted between the column pipe of the vertical pump and a canister surrounding the column pipe , said passive actuator having a first operational state for adding stiffness between the canister and the column pipe and a second operational state for at least reducing said stiffness, characterized in that the passive actuator comprises a plurality of passive actuator elements , each of which is designed to automatically change from the second operational state to the first operational state when the temperature of the passive actuator element changes from a second temperature to a first temperature, the first temperature being different from the second temperature, and to automatically change from the first operational state to the second operational state, when the temperature of the passive actuator element changes from the first temperature to the second temperature.
An integrated sense resistor configured for sensing a voltage developed by current flowing across the integrated sense resistor for determining a value of the current, characterised by : a plurality of first metal bumps alternating with a plurality of second metal bumps in a first lateral direction and wherein the first metal bumps and the second metal bumps further alternate in a second direction crossing the first lateral direction, wherein the second lateral direction is orthogonal to the first lateral direction such that the first and second metal bumps are arranged in a checkerboard pattern; and a plurality of thin film resistors each disposed between and electrically connected to a pair of adjacent ones of first and second metal bumps. a plurality of first metal bumps alternating with a plurality of second metal bumps in a first lateral direction and wherein the first metal bumps and the second metal bumps further alternate in a second direction crossing the first lateral direction, wherein the second lateral direction is orthogonal to the first lateral direction such that the first and second metal bumps are arranged in a checkerboard pattern; and a plurality of thin film resistors each disposed between and electrically connected to a pair of adjacent ones of first and second metal bumps.
Process for fabricating an electronic component incorporating double quantum dots and split gates, comprising providing a substrate surmounted with a stack of a semiconductor layer and of a dielectric layer that is formed above the semiconductor layer, comprising the steps of: - forming a dielectric hard mask on the dielectric layer ; - etching the dielectric layer and the semiconductor layer with the pattern of the dielectric hard mask , so as to form a stack of a semiconductor nanowire , of a dielectric layer and of a dielectric hard mask ; - using a selective etch to etch a portion of the width of the dielectric hard mask selectively with respect to the semiconductor nanowire , then - forming lateral faces of a gate insulator on either side of the nanowire, then - depositing a gate material on all the wafer; - carrying out a planarization, until the dielectric hard mask is reached, so as to form first and second gates that are electrically insulated from each other on either side of said nanowire. - forming a dielectric hard mask on the dielectric layer ; - etching the dielectric layer and the semiconductor layer with the pattern of the dielectric hard mask , so as to form a stack of a semiconductor nanowire , of a dielectric layer and of a dielectric hard mask ; - using a selective etch to etch a portion of the width of the dielectric hard mask selectively with respect to the semiconductor nanowire , then - forming lateral faces of a gate insulator on either side of the nanowire, then - depositing a gate material on all the wafer; - carrying out a planarization, until the dielectric hard mask is reached, so as to form first and second gates that are electrically insulated from each other on either side of said nanowire.
An apparatus to be employed by a user equipment (UE) to generate feedback information, the apparatus comprising: communication circuitry to: wirelessly communicate with an evolved Node B (eNB) via physical resource blocks (PRBs) of a channel; and receive, from the eNB, a message defining a first PRB set that includes one or more PRBs of the channel and a second PRB set that includes at least one PRB of the channel; and feedback circuitry coupled to the communication circuitry , the feedback circuitry to: generate a first channel state information (CSI) report for the first PRB set based on a first average interference measurement for the one or more PRBs of the first PRB set; generate a second CSI report for the second PRB set based on a second average interference measurement for the at least one PRB of the second PRB set; and transmit, via the communication circuitry , the first and second CSI reports to the eNB; wherein the first and second PRB sets are non-overlapping. communication circuitry to: wirelessly communicate with an evolved Node B (eNB) via physical resource blocks (PRBs) of a channel; and receive, from the eNB, a message defining a first PRB set that includes one or more PRBs of the channel and a second PRB set that includes at least one PRB of the channel; and wirelessly communicate with an evolved Node B (eNB) via physical resource blocks (PRBs) of a channel; and receive, from the eNB, a message defining a first PRB set that includes one or more PRBs of the channel and a second PRB set that includes at least one PRB of the channel; and feedback circuitry coupled to the communication circuitry , the feedback circuitry to: generate a first channel state information (CSI) report for the first PRB set based on a first average interference measurement for the one or more PRBs of the first PRB set; generate a second CSI report for the second PRB set based on a second average interference measurement for the at least one PRB of the second PRB set; and transmit, via the communication circuitry , the first and second CSI reports to the eNB; generate a first channel state information (CSI) report for the first PRB set based on a first average interference measurement for the one or more PRBs of the first PRB set; generate a second CSI report for the second PRB set based on a second average interference measurement for the at least one PRB of the second PRB set; and transmit, via the communication circuitry , the first and second CSI reports to the eNB; wherein the first and second PRB sets are non-overlapping.
An image processing method for rendering an image space expressed using an image frame, said image frame comprising a plurality of areas, the method comprising: determining a number of virtual point lights (VPLs) to be arranged in the image space for each of the areas of a current image frame ; projecting VPLs that were arranged for a previous image frame in the image space for the current image frame, wherein the current image frame is temporally concatenated with the previous image frame ; adjusting a result of the projection based on the determined number of VPLs ; and rendering the current image frame based on the adjustment of the result of the projection , characterized in that the adjusting comprises adjusting a luminance of the VPLs sampled in the current frame using a temporal filter based on a luminance of the VPLs sampled in the previous frame . determining a number of virtual point lights (VPLs) to be arranged in the image space for each of the areas of a current image frame ; projecting VPLs that were arranged for a previous image frame in the image space for the current image frame, wherein the current image frame is temporally concatenated with the previous image frame ; adjusting a result of the projection based on the determined number of VPLs ; and rendering the current image frame based on the adjustment of the result of the projection , characterized in that the adjusting comprises adjusting a luminance of the VPLs sampled in the current frame using a temporal filter based on a luminance of the VPLs sampled in the previous frame .
A method performed by a mobile device , the method comprising: receiving, by the mobile device , from a first cell operating on an unlicensed carrier, an indication of an energy detection threshold for a clear channel assessment; determining whether the unlicensed carrier is occupied based upon the clear channel assessment and the received energy detection threshold; communicating a data packet between the mobile device and the first cell when the unlicensed carrier is not otherwise occupied; characterized by the method further comprising: monitoring, in the mobile device , for a signal addressed to the mobile device from the first cell during an active time having an initial duration equal to an initial active time; receiving, by the mobile device , on a control channel, downlink control information indicating a command to extend the active time; extending, in the mobile device , the active time in response to the receiving the command to extend the active time; and wherein communicating comprises communicating the data packet between the mobile device and the first cell during the extended active time. receiving, by the mobile device , from a first cell operating on an unlicensed carrier, an indication of an energy detection threshold for a clear channel assessment; determining whether the unlicensed carrier is occupied based upon the clear channel assessment and the received energy detection threshold; communicating a data packet between the mobile device and the first cell when the unlicensed carrier is not otherwise occupied; characterized by the method further comprising: monitoring, in the mobile device , for a signal addressed to the mobile device from the first cell during an active time having an initial duration equal to an initial active time; receiving, by the mobile device , on a control channel, downlink control information indicating a command to extend the active time; extending, in the mobile device , the active time in response to the receiving the command to extend the active time; and wherein communicating comprises communicating the data packet between the mobile device and the first cell during the extended active time.
Optical component comprising a first layer , a second layer and a bulk sandwiched between said first and second layers , wherein - the bulk is formed by a composition comprising a liquid crystal material that itself comprises liquid crystal molecules, said liquid crystal material being in a blue phase , - at least one of the first and second layers has, toward the bulk , an alignment layer , and - the blue phase of the liquid crystal material is a first type of structure called blue phase I in which the liquid crystal molecules have a constrained arrangement into double twist cylinders assembled into body-centered cubic lattices having virtual faces in the shape of a square, said blue phase I type of structure exhibiting a uniform organization in three directions (Ox, Oy, Oz) according to which any two adjacent of said body-centered cubic lattices exhibit virtual faces that are globally parallel two by two in said three directions (Ox, Oy, Oz) so that said cubic lattices are homogeneously aligned and oriented in at least 80% of the volume of the bulk , - said liquid crystal material in said blue phase being stabilized at least over the temperatures ranging from 20°C to 35°C. - the bulk is formed by a composition comprising a liquid crystal material that itself comprises liquid crystal molecules, said liquid crystal material being in a blue phase , - at least one of the first and second layers has, toward the bulk , an alignment layer , and - the blue phase of the liquid crystal material is a first type of structure called blue phase I in which the liquid crystal molecules have a constrained arrangement into double twist cylinders assembled into body-centered cubic lattices having virtual faces in the shape of a square, said blue phase I type of structure exhibiting a uniform organization in three directions (Ox, Oy, Oz) according to which any two adjacent of said body-centered cubic lattices exhibit virtual faces that are globally parallel two by two in said three directions (Ox, Oy, Oz) so that said cubic lattices are homogeneously aligned and oriented in at least 80% of the volume of the bulk , - said liquid crystal material in said blue phase being stabilized at least over the temperatures ranging from 20°C to 35°C.
Bench for mechanically characterising a thin object by applying a compression force along a given compression axis, including: - a frame, - a bottom compression assembly resting on the frame and including a first compression face, - movable equipment that is able to move along the compression axis with respect to the frame and carrying a top compression assembly including a second compression face opposite the first compression face, - uprights secured to the frame, - means for applying a force along the compression axis to the object intended to be located between the first and second compression faces, said force having a given intensity and being orthogonal to the first and second compression faces, the application means being secured to said uprights, - at least one force sensor interposed between the movable equipment and the means for applying a force, - at least one movement sensor disposed so as to measure the movement between the first compression face and the second compression face in the direction of the compression axis, wherein the top compression assembly includes a second compression part carrying the second compression face and a second mounting surrounding the second compression part, the second compression part and the second mounting being rigidly connected to each other at least in the direction of the compression axis, and having a connection in the directions orthogonal to the movement direction, having low rigidity so that a deformation of the second compression part in the plane orthogonal to the compression direction does not deform or only slightly deforms the second mounting and wherein the at least one movement sensor measures the movement between the top compression assembly and the bottom compression assembly. - a frame, - a bottom compression assembly resting on the frame and including a first compression face, - movable equipment that is able to move along the compression axis with respect to the frame and carrying a top compression assembly including a second compression face opposite the first compression face, - uprights secured to the frame, - means for applying a force along the compression axis to the object intended to be located between the first and second compression faces, said force having a given intensity and being orthogonal to the first and second compression faces, the application means being secured to said uprights, - at least one force sensor interposed between the movable equipment and the means for applying a force, - at least one movement sensor disposed so as to measure the movement between the first compression face and the second compression face in the direction of the compression axis,
Transmission system for vehicles comprising: - a brake disc having a toothing on its perimetral edge, acting as a main gear; - a brake caliper coupled to the brake disc ; and - at least one electric motor having a secondary gear coupled in turn to the toothing of the brake disc for the operation and/or deceleration thereof; characterised in that the at least one electric motor is assembled on the brake caliper ; said electric motor being connected to at least one battery for supplying power to same; the transmission system further comprises a control unit for control over the operation of the at least one electric motor ; and wherein the at least one electric motor is connected to the control unit for the operation thereof, both in normal traction mode and in regenerative mode for recharging the battery during braking times of the vehicle. - a brake disc having a toothing on its perimetral edge, acting as a main gear; - a brake caliper coupled to the brake disc ; and - at least one electric motor having a secondary gear coupled in turn to the toothing of the brake disc for the operation and/or deceleration thereof; the transmission system further comprises a control unit for control over the operation of the at least one electric motor ; and wherein the at least one electric motor is connected to the control unit for the operation thereof, both in normal traction mode and in regenerative mode for recharging the battery during braking times of the vehicle.