mhurhangee/patent-ind-claim-en huggingface dataset:
A game controller comprising: an electronic input sensor; and a mounting platform including an accessory-retention feature and a sensor-activation feature, the accessory-retention feature being configured to removably affix a selected removable controller accessory to the mounting platform, the selected removable controller accessory being one of a plurality of differently configured removable controller accessories removably affixable to the mounting platform, and the mounting platform being configured to move from a default posture to an activation posture responsive to finger manipulation of the selected removable controller accessory when the selected removable controller accessory is affixed to the mounting platform; and wherein the sensor-activation feature interfaces with the electronic input sensor to generate an activate control signal in the activation posture, wherein the accessory-retention feature includes one or more magnets, wherein the selected removable controller accessory is made at least partially of ferromagnetic material, and wherein the selected removable controller accessory is removably affixable to the mounting platform through a magnetic attraction between the one or more magnets and the ferromagnetic material, wherein the one or more magnets are each positioned such that a pole of each magnet extends in a direction that is not parallel to an interface direction between the selected removable controller accessory and the mounting platform. an electronic input sensor; and a mounting platform including an accessory-retention feature and a sensor-activation feature, the accessory-retention feature being configured to removably affix a selected removable controller accessory to the mounting platform, the selected removable controller accessory being one of a plurality of differently configured removable controller accessories removably affixable to the mounting platform, and the mounting platform being configured to move from a default posture to an activation posture responsive to finger manipulation of the selected removable controller accessory when the selected removable controller accessory is affixed to the mounting platform; and wherein the sensor-activation feature interfaces with the electronic input sensor to generate an activate control signal in the activation posture, wherein the accessory-retention feature includes one or more magnets, wherein the selected removable controller accessory is made at least partially of ferromagnetic material, and wherein the selected removable controller accessory is removably affixable to the mounting platform through a magnetic attraction between the one or more magnets and the ferromagnetic material, wherein the one or more magnets are each positioned such that a pole of each magnet extends in a direction that is not parallel to an interface direction between the selected removable controller accessory and the mounting platform.
A method of performing fractional-pixel interpolation filtering in media coding comprising: applying a finite impulse response (FIR) filter to samples of a source signal to generate an array of values; after applying the FIR filter, applying an infinite impulse response (IIR) 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 , 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 , and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/4. applying a finite impulse response (FIR) filter to samples of a source signal to generate an array of values; after applying the FIR filter, applying an infinite impulse response (IIR) 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 , 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 , 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 , 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 , and wherein applying the IIR filter comprises applying an IIR filter with a pole value of -1/4.
A method for producing a microelectronic device comprising a substrate and a stack comprising at least one electrically conductive layer and at least one dielectric layer, comprising the following steps: - forming, from one face of the substrate , at least one pattern recessed relative to a plane of the face of the substrate , the wall of the pattern including a bottom part and a sidewall part, the sidewall part being located between the bottom part and the face of the substrate , - forming the stack , the layers of the stack participating in at least partially filling the pattern , the step of forming the stack being carried out over the entire surface of the face of the substrate , - thinning the stack at least to the plane of the face of the substrate so as to fully expose the wafer of said at least one electrically conductive layer flush in a plane , - after thinning, forming at least one electrical connection member on the substrate in contact with the wafer of said at least one electrically conductive layer while leaving the entire wafer of said at least one electrically conductive layer flush in said plane , the wafer then forming a closed contour flush in said plane , said electrical connection member being configured to form an individual resumption of contact on the wafer of said electrically conductive layer, characterised in that the sidewall part of the wall of the pattern is formed with at least one panel inclined up to the face of the substrate , the inclined panel having an angle of inclination with the plane of the face of the substrate strictly comprised between 0° and 90° so that the width of the wafer is greater than the thickness of said electrically conductive layer. - forming, from one face of the substrate , at least one pattern recessed relative to a plane of the face of the substrate , the wall of the pattern including a bottom part and a sidewall part, the sidewall part being located between the bottom part and the face of the substrate , - forming the stack , the layers of the stack participating in at least partially filling the pattern , the step of forming the stack being carried out over the entire surface of the face of the substrate , - thinning the stack at least to the plane of the face of the substrate so as to fully expose the wafer of said at least one electrically conductive layer flush in a plane , - after thinning, forming at least one electrical connection member on the substrate in contact with the wafer of said at least one electrically conductive layer while leaving the entire wafer of said at least one electrically conductive layer flush in said plane , the wafer then forming a closed contour flush in said plane , said electrical connection member being configured to form an individual resumption of contact on the wafer of said electrically conductive layer,
Method of laser hardening of a surface of a workpiece, the workpiece comprising at least one surface area to be hardened, said surface area comprising at least one more heat sensitive subarea and at least one less heat sensitive subarea, the method comprising: projecting a laser beam from a laser source onto said surface area, so as to produce a laser spot on said area; generating a relative movement between the surface of the workpiece and the laser source , thereby allowing the laser spot to subsequently be projected onto different portions of said surface area; during said relative movement, repetitively scanning the laser beam across the respective portion of said surface area in two dimensions so as to produce a two-dimensional equivalent effective laser spot on said surface area, said effective laser spot having an energy distribution; wherein said energy distribution is adapted during said relative movement so that it is different in a more heat sensitive subarea than in a less heat sensitive subarea, so as to prevent overheating of said more heat sensitive subarea. projecting a laser beam from a laser source onto said surface area, so as to produce a laser spot on said area; generating a relative movement between the surface of the workpiece and the laser source , thereby allowing the laser spot to subsequently be projected onto different portions of said surface area; during said relative movement, repetitively scanning the laser beam across the respective portion of said surface area in two dimensions so as to produce a two-dimensional equivalent effective laser spot on said surface area, said effective laser spot having an energy distribution; wherein said energy distribution is adapted during said relative movement so that it is different in a more heat sensitive subarea than in a less heat sensitive subarea, so as to prevent overheating of said more heat sensitive subarea.
A method for checking the authenticity of an identification document comprising the following steps: - capturing a first image of the identification document with first image capture parameters, - recognising information in the first image, wherein the information includes the specification of a document type, or wherein a document type of the identification document can be derived from the information, - performing a database query with the aid of the information to query second image capture parameters, - capturing a second image of the identification document with the second image capture parameters, wherein the second image capture parameters include document-type-specific parameters relating to the lighting of the identification document and relating to the exposure of an optical sensor with the aid of which the second image is captured, - inspecting one or more security features of the identification document on the basis of the second image, wherein at least one of the security features is fluorescent, and wherein the first image is captured in a first frequency range and the second image is captured in a second frequency range, wherein the first and second frequency ranges are different from one another, and wherein the first frequency range is an IR frequency range and the second frequency range is a UV frequency range, and wherein the information in the first image is recognised by means of optical character recognition. - capturing a first image of the identification document with first image capture parameters, - recognising information in the first image, wherein the information includes the specification of a document type, or wherein a document type of the identification document can be derived from the information, - performing a database query with the aid of the information to query second image capture parameters, - capturing a second image of the identification document with the second image capture parameters, wherein the second image capture parameters include document-type-specific parameters relating to the lighting of the identification document and relating to the exposure of an optical sensor with the aid of which the second image is captured, - inspecting one or more security features of the identification document on the basis of the second image,
An aerosol can body having a surface pattern on a trunk portion , comprising: a lower opening (Ob) to which a bottom lid is attached, and which is formed on one end of the seamless cylindrical trunk portion formed of a steel sheet; a domed shoulder portion having an arcuate cross-section, that is formed on the other end of the trunk portion continuously from the trunk portion ; and an opening curled portion that is diametrically smaller than the lower opening (Ob) and that is formed on a center of a leading end of the shoulder portion , wherein the surface pattern is formed on the trunk portion between an upper end of the shoulder portion side and a lower end of the lower opening (Ob) side by embossing or debossing the trunk portion in a thickness direction, characterized in that : an upper end level (T6) of the surface pattern is set lower than a boundary (B23) between the trunk portion and the shoulder portion ; an upper region (A) of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level (T6) of the surface pattern ; and Vickers hardness of at least the upper region (A) of the trunk portion is greater than 200Hv but less than 250Hv. a lower opening (Ob) to which a bottom lid is attached, and which is formed on one end of the seamless cylindrical trunk portion formed of a steel sheet; a domed shoulder portion having an arcuate cross-section, that is formed on the other end of the trunk portion continuously from the trunk portion ; and an opening curled portion that is diametrically smaller than the lower opening (Ob) and that is formed on a center of a leading end of the shoulder portion , wherein the surface pattern is formed on the trunk portion between an upper end of the shoulder portion side and a lower end of the lower opening (Ob) side by embossing or debossing the trunk portion in a thickness direction, characterized in that : an upper end level (T6) of the surface pattern is set lower than a boundary (B23) between the trunk portion and the shoulder portion ; an upper region (A) of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level (T6) of the surface pattern ; and Vickers hardness of at least the upper region (A) of the trunk portion is greater than 200Hv but less than 250Hv. an upper end level (T6) of the surface pattern is set lower than a boundary (B23) between the trunk portion and the shoulder portion ; an upper region (A) of the trunk portion that has a predetermined width in a height direction of the trunk portion includes the upper end level (T6) of the surface pattern ; and Vickers hardness of at least the upper region (A) of the trunk portion is greater than 200Hv but less than 250Hv.
A motor vehicle with at least one headlight , wherein the at least one headlight is installed in the front end of the body of the motor vehicle, wherein one or more light sources are arranged in the at least one headlight and the at least one headlight comprises a bottom frame and a glass cover , wherein a system with a function of the light animation is arranged on the bottom frame of the at least one headlight , characterized in that the system with the function of the light animation consists of one or more design pins and a circuit board with light sources for each of the design pins as well as an electronic control device for separately lighting up the individual design pins.
A polymer composition comprising a polyolefin, peroxide and a phenolic sulphur containing antioxidant, wherein said peroxide is present in an amount which corresponds to X mmol -O-O-/kg polymer composition and said phenolic sulphur containing antioxidant is present in an amount which corresponds to Y mmol -OH /kg polymer composition, wherein Y 1 ≤ Y ≤ Y 2 , X < 35 and 0.9 ∗ Y + m ≤ X ≤ n - k ∗ Y , wherein Y 1 is 0.50 and Y 2 is 10, and m is 0.8, n is 70 and k is 4.7; and wherein said polymer composition has a melt flow rate (MFR 2 ) which is 1.7 to 2.3 g /10 min (ISO 1133), and said polymer composition comprises less than 0.05 % by weight (wt%) 2,4-Diphenyl-4-methyl-1-pentene.
A catheter comprising: an elongated body comprising a proximal end and a distal portion; a handle operably connected to the proximal end of the body; wherein the distal portion comprises a plurality of coplanar splines, wherein the plurality of coplanar splines are also coplanar with the elongated body, and wherein each spline comprises at least one coaxtrode , and wherein the at least one coaxtrode comprises a spot electrode surrounded by a ring electrode, the spot electrode being concentric with the ring electrode. an elongated body comprising a proximal end and a distal portion; a handle operably connected to the proximal end of the body; wherein the distal portion comprises a plurality of coplanar splines, wherein the plurality of coplanar splines are also coplanar with the elongated body, and wherein each spline comprises at least one coaxtrode , and wherein the at least one coaxtrode comprises a spot electrode surrounded by a ring electrode, the spot electrode being concentric with the ring electrode.
A method for controlling a plurality of indoor units, the method comprising: determining a number of first indoor units among the plurality of indoor units based on a first information relating to the energy consumption of an outdoor unit connected with the plurality of indoor units corresponding to an indoor temperature change rate; determining a number of second indoor units among the plurality of indoor units based on a second information relating to a preset comfort zone; and calculating , if the number of the second indoor units is greater than the number of the first indoor units, the priorities of the second indoor units based on the first information and the second information, and operating at least one indoor unit among the second indoor units based on the calculated priorities. determining a number of first indoor units among the plurality of indoor units based on a first information relating to the energy consumption of an outdoor unit connected with the plurality of indoor units corresponding to an indoor temperature change rate; determining a number of second indoor units among the plurality of indoor units based on a second information relating to a preset comfort zone; and calculating , if the number of the second indoor units is greater than the number of the first indoor units, the priorities of the second indoor units based on the first information and the second information, and
A method for preferably continuously treating and purifying water (A) contaminated with organic impurities, preferably micropollutants and/or trace substances, for the purpose of obtaining treated and purified water (B), wherein the impurities are adsorptively removed from the water (A) to be treated and purified, preferably in the case of temporary and/or spontaneously occurring increases in concentration of the impurities in the water (A) to be treated and purified, wherein the water (A) to be treated and purified is fed to a water purification system for adsorptive removal of the impurities, wherein the water purification system has at least one main adsorption device and at least one peak load adsorption device which can be engaged as a function of a predetermined inlet concentration limit value of the impurities in the water (A) to be treated and purified and is arranged upstream of the main adsorption device , wherein the main adsorption device has a fixed bed based on a particulate activated carbon in a loose bulk of particulate activated carbon and wherein the peak load adsorption device has a fixed bed based on a particulate activated carbon in a loose bulk of particulate activated carbon, wherein the peak load adsorption device has a smaller fixed bed filter volume (V SLA ) than the main adsorption device , wherein the ratio of the fixed bed filter volume (V HA ) of the main adsorption device , on the one hand, to the fixed bed filter volume (V SLA ) of the peak load adsorption device , on the other hand, is at least 1.2:1, wherein the residence time of the water (A) to be treated and purified in the peak load adsorption device is set to a smaller value than in the main adsorption device , wherein the ratio of the residence time of the water (A) to be treated and purified in the main adsorption device to the residence time of the water (A) to be treated and purified in the peak load adsorption device is set to a value of at least 1.2:1, wherein the water (A) to be treated and purified is fed to the main adsorption device and treated and purified in the main adsorption device , wherein the impurities are adsorptively, at least substantially completely, removed in the main adsorption device , in particular in such a way that the concentration of the impurities is reduced below a predetermined outlet concentration limit value, and wherein the peak load adsorption device is engaged when the specified inlet concentration limit value of the impurities in the water (A) to be treated and purified is exceeded and the main adsorption device is connected upstream in such a way that the water (A) to be treated and purified is at least partially, preferably completely, first fed to the peak load adsorption device and treated and purified in the peak load adsorption device , wherein the impurities are at least partially removed by adsorption, the increase in the concentration of the impurities is preferably attenuated and evened out.
Counter lock for an inactive leaf of a double leaf door, comprising an actuating cam coupled to a follower , an upper slider configured for being coupled to an upper rod through which the blocking of the inactive leaf at an upper blocking point (A) is maintained when the counter lock is in a neutral position, a lower slider configured for being coupled to a lower rod through which the blocking of the inactive leaf at a lower blocking point (B) is maintained when the counter lock is in the neutral position, both sliders being movable with respect to one another, the actuating cam being configured for moving at least one of the sliders when the follower is rotated in an opening direction causing the release of the upper and lower blocking points (A, B) of the inactive leaf , and a pusher configured for actuating a latch of a lock , with the latch being housed at least partially in the counter lock when the counter lock is in the neutral position, blocking an active leaf of the double leaf door in a central blocking point (C), the actuating cam being configured for actuating, in a first step, the pusher when the follower is rotated in the opening direction causing the release of the central blocking point (C), and to then, in a second step, moving at least one of the sliders unblocking the upper and lower blocking points (A, B) of the inactive leaf , the actuating cam is configured for rotating when the follower is rotated in an opening direction, the actuating cam comprising a support surface which, in the neutral position, contacts the pusher , said support surface being configured for acting on the pusher rotating it in the direction opposite the opening direction in the first step when the follower is rotated in the opening direction, characterized in that the support surface , in the neutral position, blocks the rotation of the pusher , and that the actuating cam comprises an actuating surface configured for contacting the lower slider in the second step when the actuating cam has rotated a specific angle in the opening direction from the neutral position.