mhurhangee/ep-ind-claims huggingface dataset:
A method of determining, by a computer, at least a component of a vector representing a metric of a process for manufacturing a semiconductor integrated circuit defined by a target design, said method being characterized in that it comprises: - Selecting at least a point of the target design as a point of interest (x, y),; - Selecting a kernel function K(r) centered on the at least a point of interest, said kernel function depending on a radius; - Calculating over the target design at least a convolution of the target design and a compound of the kernel function K(r) and a deformation function f x,y (θ, φ x,y), said deformation function depending on the angle of interest and a selected shift angle φ x,y; - Determining a value of the at least a component V(x,y) from the value of the convolution function at the at least a point of interest (x,y),. - Selecting at least a point of the target design as a point of interest (x, y),; - Selecting a kernel function K(r) centered on the at least a point of interest, said kernel function depending on a radius; - Calculating over the target design at least a convolution of the target design and a compound of the kernel function K(r) and a deformation function f x,y (θ, φ x,y), said deformation function depending on the angle of interest and a selected shift angle φ x,y; - Determining a value of the at least a component V(x,y) from the value of the convolution function at the at least a point of interest (x,y),.
A motor, comprising: a stator around which an armature coil is wound; a bus bar unit including a coil-connection bus bar electrically connected to the armature coil and an electronic-part-connection bus bar to which a plurality of electronic parts (15, 16) is welded; and a bus bar holding member arranged to hold the bus bar unit, wherein the electronic-part-connection bus bar includes an electronic part welding portion having a plurality of welding points (X, Y) at which the electronic parts (15, 16) are welded to a leading end of the electronic part welding portion, characterized in that it further includes a base portion held by the bus bar holding member, and a connection portion configured to interconnect the electronic part welding portion and the base portion, the distance between the welding points (X, Y) adjoining each other being larger than the width (B, C) of a thinnest section of the connection portion. a stator around which an armature coil is wound; a bus bar unit including a coil-connection bus bar electrically connected to the armature coil and an electronic-part-connection bus bar to which a plurality of electronic parts (15, 16) is welded; and a bus bar holding member arranged to hold the bus bar unit, wherein the electronic-part-connection bus bar includes an electronic part welding portion having a plurality of welding points (X, Y) at which the electronic parts (15, 16) are welded to a leading end of the electronic part welding portion, characterized in that it further includes a base portion held by the bus bar holding member, and a connection portion configured to interconnect the electronic part welding portion and the base portion, the distance between the welding points (X, Y) adjoining each other being larger than the width (B, C) of a thinnest section of the connection portion.
An indication apparatus for a hybrid vehicle employing, as traveling sources for the vehicle, an engine and a rotating electric machine actuating by electric power supplied from a power storage mechanism, comprising: a calculation portion to calculate an index with which the vehicle is allowed to travel by said rotating electric machine without actuating said engine; and an indication portion to indicate said index in an instrument panel in front of a drivers seat so as to inform a driver of said index. a calculation portion to calculate an index with which the vehicle is allowed to travel by said rotating electric machine without actuating said engine; and an indication portion to indicate said index in an instrument panel in front of a drivers seat so as to inform a driver of said index.
A method for producing a lactide block copolymer by melt polymerization in the presence of a catalyst from a first lactide monomer and a second lactide monomer, the first and second lactide monomers being different from each other and being selected from L-lactide and D-lactide, wherein the method comprises the following steps: a. polymerizing the first lactide monomer to provide a first polymerization mixture comprising a polymer of the first lactide monomer and a residual amount of the first lactide monomer; b. adding a first amount of the second lactide monomer to the first polymerization mixture and polymerizing the resulting mixture to provide a second polymerization mixture comprising a copolymer having a polymeric block of the first lactide monomer and a copolymeric block of the first and the second lactide monomers; c. adding a second amount of the second lactide monomer to the second polymerization mixture and polymerizing the resulting mixture to provide a third polymerization mixture comprising a copolymer having a polymeric block of the first lactide monomer, a copolymeric block of the first and the second lactide monomers, and a polymeric block of the second lactide monomer. a. polymerizing the first lactide monomer to provide a first polymerization mixture comprising a polymer of the first lactide monomer and a residual amount of the first lactide monomer; b. adding a first amount of the second lactide monomer to the first polymerization mixture and polymerizing the resulting mixture to provide a second polymerization mixture comprising a copolymer having a polymeric block of the first lactide monomer and a copolymeric block of the first and the second lactide monomers; c. adding a second amount of the second lactide monomer to the second polymerization mixture and polymerizing the resulting mixture to provide a third polymerization mixture comprising a copolymer having a polymeric block of the first lactide monomer, a copolymeric block of the first and the second lactide monomers, and a polymeric block of the second lactide monomer.
A wireless end device, comprising: a processor and a memory communicatively connected to the processor, the processor configured to: receive feedback collection instruction information comprising a set of quality thresholds and, for each of the quality thresholds, a respective feedback probability that the wireless end device is to provide feedback information to a network device, wherein the lower the quality level as indicated by a given quality threshold, the higher the feedback probability; and wherein the feedback collection instruction information further comprises an indication of a feedback rate at which feedback information is to be reported, determine whether a measured quality level of the wireless end device satisfies one of the quality thresholds, and determine, based on a determination that the measured quality level of the wireless end device does not satisfy the one quality threshold and based on the feedback probability, whether the wireless end device is to provide feedback information to the network device; and send feedback information from the wireless end device toward the network device based on a determination that the wireless end device is to provide feedback information to the network device, wherein the feedback information is sent at the feedback rate indicated by the feedback collection instruction information. receive feedback collection instruction information comprising a set of quality thresholds and, for each of the quality thresholds, a respective feedback probability that the wireless end device is to provide feedback information to a network device, wherein the lower the quality level as indicated by a given quality threshold, the higher the feedback probability; and wherein the feedback collection instruction information further comprises an indication of a feedback rate at which feedback information is to be reported, determine whether a measured quality level of the wireless end device satisfies one of the quality thresholds, and determine, based on a determination that the measured quality level of the wireless end device does not satisfy the one quality threshold and based on the feedback probability, whether the wireless end device is to provide feedback information to the network device; and send feedback information from the wireless end device toward the network device based on a determination that the wireless end device is to provide feedback information to the network device, wherein the feedback information is sent at the feedback rate indicated by the feedback collection instruction information.
A method of continuous processing of flexible glass ribbon (12,46) having a thickness of no more than 0.3 mm using a glass processing apparatus, the method comprising: providing the glass processing apparatus having at least three processing zones including a first processing zone, a second processing zone and a third processing zone; continuously feeding the flexible glass ribbon (12,46) from the first processing zone, through the second processing zone to the third processing zone; separating an edge of the flexible glass ribbon (12,46) as the flexible glass ribbon moves by a cutting device (170,174) within the second processing zone forming a continuous strip of edge trim connected to a central portion of the flexible glass ribbon; controlling feed rate of the flexible glass ribbon through each of the first processing zone, second processing zone and third processing zone using a global control device; providing a first buffer zone between the first processing zone and the second processing zone in which the flexible glass substrate is supported in a first catenary between two, spaced-apart payoff positions; providing a second buffer zone between the second processing zone and the third processing zone in which the flexible glass substrate is supported in a second catenary between two, spaced-apart payoff positions. providing the glass processing apparatus having at least three processing zones including a first processing zone, a second processing zone and a third processing zone; continuously feeding the flexible glass ribbon (12,46) from the first processing zone, through the second processing zone to the third processing zone; separating an edge of the flexible glass ribbon (12,46) as the flexible glass ribbon moves by a cutting device (170,174) within the second processing zone forming a continuous strip of edge trim connected to a central portion of the flexible glass ribbon; controlling feed rate of the flexible glass ribbon through each of the first processing zone, second processing zone and third processing zone using a global control device; providing a first buffer zone between the first processing zone and the second processing zone in which the flexible glass substrate is supported in a first catenary between two, spaced-apart payoff positions; providing a second buffer zone between the second processing zone and the third processing zone in which the flexible glass substrate is supported in a second catenary between two, spaced-apart payoff positions.
A flexible seal system for a gas turbine engine, comprising: an annular mounting bracket; an annular support bracket; and an annular flexible seal constructed from an elastomer composite and extending axially between a first mounting segment and a second mounting segment, wherein the first mounting segment is connected axially between the mounting bracket and the support bracket, and comprises a plurality of mounting apertures that extend axially through the first mounting segment, characterised in that said system further comprises: a plurality of mounting spacers constructed from metal, each arranged within a respective one of the mounting apertures, and extending axially between and contacting the mounting bracket and the support bracket. an annular mounting bracket; an annular support bracket; and an annular flexible seal constructed from an elastomer composite and extending axially between a first mounting segment and a second mounting segment, wherein the first mounting segment is connected axially between the mounting bracket and the support bracket, and comprises a plurality of mounting apertures that extend axially through the first mounting segment, a plurality of mounting spacers constructed from metal, each arranged within a respective one of the mounting apertures, and extending axially between and contacting the mounting bracket and the support bracket.
A method of performing fractional-pixel interpolation filtering in media coding comprising: applying a finite impulse response filter to samples of a source signal to generate an array of values; after applying the FIR filter, applying an infinite impulse response filter to the array of the values to generate fractional-pixel interpolated values; and at least one of storing the fractional-pixel interpolated values in an encoded video data structure, outputting the fractional-pixel interpolated values to a display interface, or using the fractional-pixel interpolated values as prediction data to encode a future frame; and characterized in that: applying the FIR filter to the samples of the source signal comprises applying a 4-tap FIR filter with coefficient values [1, 8, 8, 1], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/2; or applying the FIR filter to the samples of the source signal comprises applying a 2-tap FIR filter with coefficient values [25, 25], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/4. applying a finite impulse response filter to samples of a source signal to generate an array of values; after applying the FIR filter, applying an infinite impulse response filter to the array of the values to generate fractional-pixel interpolated values; and at least one of storing the fractional-pixel interpolated values in an encoded video data structure, outputting the fractional-pixel interpolated values to a display interface, or using the fractional-pixel interpolated values as prediction data to encode a future frame; and characterized in that: applying the FIR filter to the samples of the source signal comprises applying a 4-tap FIR filter with coefficient values [1, 8, 8, 1], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/2; or applying the FIR filter to the samples of the source signal comprises applying a 2-tap FIR filter with coefficient values [25, 25], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/4. applying the FIR filter to the samples of the source signal comprises applying a 4-tap FIR filter with coefficient values [1, 8, 8, 1], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/2; or applying the FIR filter to the samples of the source signal comprises applying a 2-tap FIR filter with coefficient values [25, 25], and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/4.
An electronic apparatus, comprising: a display; an outer frame which houses the display; an illuminance sensor configured to obtain a sensing value related to at least one of an illuminance and a color temperature of an external light; a memory configured to store a background image which is an image of an area behind the electronic apparatus; and a processor configured to generate a content screen comprising an object layer comprising at least one graphic object and a background image layer comprising the background image and control the display to display the content screen, wherein the processor is further configured to control the display to perform at least one of correct the background image based on the obtained sensing value and provide an image effect based on the obtained sensing value, wherein the processor is further configured to set a transparency of the object layer to a first transparency, and set a transparency of the background image layer to a second transparency, and wherein the first transparency is lower than the second transparency. a display; an outer frame which houses the display; an illuminance sensor configured to obtain a sensing value related to at least one of an illuminance and a color temperature of an external light; a memory configured to store a background image which is an image of an area behind the electronic apparatus; and a processor configured to generate a content screen comprising an object layer comprising at least one graphic object and a background image layer comprising the background image and control the display to display the content screen, wherein the processor is further configured to control the display to perform at least one of correct the background image based on the obtained sensing value and provide an image effect based on the obtained sensing value, wherein the processor is further configured to set a transparency of the object layer to a first transparency, and set a transparency of the background image layer to a second transparency, and wherein the first transparency is lower than the second transparency.
Improved wall structure with or for sliding door or slide-swinging door, comprising a rail section to be connected to a horizontal part of a peripheral frame and allowing a sliding movement of a sliding, or slide-swinging, or folding door, the wall structure further comprising an end closure member for the rail section to be coupled to a first extremity of the rail section, wherein the rail section is coupled to the end closure member by means of a first coupling system which is located at the first extremity of the rail section and interacts with a second coupling system located at a first side of the end closure member, characterized in that the wall structure further comprising an additional member which is, in turn, coupled to the end closure member by means of a third coupling system which is located at a second side of the end closure member distal from the first side and interacts with a fourth coupling system located at a second side of the additional member distal from a first side of the additional member itself, the additional member being either a finishing plug with its first side being in turn a finishing side thereof, or a connecting part with its first side being in this case provided with a related fifth coupling system for coupling the additional member to other parts of the wall structure.
Infill block comprising a body of a low-density material such as polystyrene and having two longitudinal edges (6, 7) each comprising a nose (13, 17) which projects transversely, said infill block being intended to be installed on two beams of the inverted T type or the like by having a nose (13, 17) resting on each beam, characterised in that it comprises at least one rigidifier (19, 21) of a material of greater strength than the material of the body of the infill block, this rigidifier (19, 21) being adapted to increase the cohesion of a nose (13, 17) with the rest of the body of the infill block, the rigidifier (19, 21) being in the form of an angled member of a Z-section which defines an upper portion, a centre portion and a lower portion, the upper portion covering a lower face (14, 18) of the nose (13, 17), the rigidifier (19, 21) being moulded with the polystyrene of the body of the infill block in such a way that the lower portion of the rigidifier (19, 21) is trapped in the thickness of the polystyrene forming the body of the infill block.
Method for performing work on an underwater pipe, comprising a phase of lowering into the marine environment an apparatus comprising an ultrasound emitting system and at least one ultrasound receiving transducer, an inspection phase along the pipe using the lowered apparatus then, when the inspection phase shows a condition for locating an obstruction at a location along the pipe, a destruction phase of the obstruction at said location using the lowered apparatus, the inspection phase comprising: - arranging an ultrasound inspection source of the ultrasound emitting system and the receiving transducer on either side of the pipe; - activating the inspection source and recording an ultrasound signal captured by the receiving transducer; and - detecting the condition for locating an obstruction at the location wherein are arranged the inspection source and the receiving transducer in response to the observation of an anomaly in the ultrasound signal captured by the receiving transducer at this location, and the destruction phase comprising: - coupling a power source of the ultrasound emitting system to the pipe at said location; and - activating the power source in order to destroy the obstruction, wherein the inspection source and the power source use the same ultrasound generator and the same transducer, - wideband pulse signals are used during the inspection phase, and - monochromatic signals with a variable frequency are used during the destruction phase. - arranging an ultrasound inspection source of the ultrasound emitting system and the receiving transducer on either side of the pipe; - activating the inspection source and recording an ultrasound signal captured by the receiving transducer; and - detecting the condition for locating an obstruction at the location wherein are arranged the inspection source and the receiving transducer in response to the observation of an anomaly in the ultrasound signal captured by the receiving transducer at this location, - coupling a power source of the ultrasound emitting system to the pipe at said location; and - activating the power source in order to destroy the obstruction, wherein the inspection source and the power source use the same ultrasound generator and the same transducer, - wideband pulse signals are used during the inspection phase, and - monochromatic signals with a variable frequency are used during the destruction phase.
A contact lens system for placing in an eye comprising: a display comprising a matrix of display elements; a driver unit configured to receive data from a host and to present the data on the display; a set of sensors integrated on the display for measuring pupil size; and wherein the driver unit is further configured to read outputs from the set of sensors to determine the pupil size and adjust a size of an active area of the display based on the pupil size by activating and deactivating the display elements. a display comprising a matrix of display elements; a driver unit configured to receive data from a host and to present the data on the display; a set of sensors integrated on the display for measuring pupil size; and wherein the driver unit is further configured to read outputs from the set of sensors to determine the pupil size and adjust a size of an active area of the display based on the pupil size by activating and deactivating the display elements.
Radiant ceiling panel arrangement for mounting in the ceiling area of a room, said arrangement comprising at least a first radiant ceiling panel and a second radiant ceiling panel for heating and/or cooling the room as well as at least one further functional element, said at least one further functional element being arranged between said at least two radiant ceiling panels (11, 12), wherein at least one connecting element (14, 15) holds the two radiant ceiling panels (11, 12) and the further functional element together, characterized in that the two radiant ceiling panels (11, 12) and the further functional element are rigidly connected by means of the at least one connecting element (14, 15).