mhurhangee/ep-ind-claims huggingface dataset:
Method for converting a channel-based 3D audio signal to a higher-order Ambisonics HOA audio signal, said method including: - if said channel-based 3D audio signal is in time domain, transforming said channel-based 3D audio signal from time domain to frequency domain; - carrying out a primary ambient decomposition for triplets of blocks of said frequency domain channel-based 3D audio signal, wherein each triplet consists of three channels, and wherein related directional signals and ambient signals are provided for each triplet; characterized by - from said directional signals, deriving directional information of a total directional signal for each triplet, wherein the total directional signal is derived by means of panning laws; - HOA encoding for each triplet, said total directional signal according to said derived directions, and HOA encoding ambient signals according to channel positions; - adding for each triplet, HOA coefficients of said HOA encoded directional signal and HOA coefficients of said HOA encoded ambient signal in order to obtain an HOA coefficients signal and combining obtained HOA coefficients signal of each triplet to obtain HOA coefficients signal for said channel-based 3D audio signal; - transforming said HOA coefficients signal for said channel-based 3D audio signal to time domain. - if said channel-based 3D audio signal is in time domain, transforming said channel-based 3D audio signal from time domain to frequency domain; - carrying out a primary ambient decomposition for triplets of blocks of said frequency domain channel-based 3D audio signal, wherein each triplet consists of three channels, and wherein related directional signals and ambient signals are provided for each triplet; characterized by - from said directional signals, deriving directional information of a total directional signal for each triplet, wherein the total directional signal is derived by means of panning laws; - HOA encoding for each triplet, said total directional signal according to said derived directions, and HOA encoding ambient signals according to channel positions; - adding for each triplet, HOA coefficients of said HOA encoded directional signal and HOA coefficients of said HOA encoded ambient signal in order to obtain an HOA coefficients signal and combining obtained HOA coefficients signal of each triplet to obtain HOA coefficients signal for said channel-based 3D audio signal; - transforming said HOA coefficients signal for said channel-based 3D audio signal to time domain.
An orthopedic interface comprising a planar 3D textile with a top and a bottom that are held at a distance from each other by supporting threads and connected to each other, the bottom of the 3D textile being designed to bear on the skin of an interface user, wherein the bottom facing the skin of the interface user is made of a lower textile and is provided at least partially with an adhesive coating, characterized in that the top has a structure that has less resistance in the direction of insertion of the interface than counter to the direction of insertion.
A light emitting device comprising: a semiconductor light emitting diode which in operation emits blue light; and an encapsulant over the LED, the encapsulant comprising a substantially transparent material containing inert non-phosphor particles, the particles being between 0.5%-10% by weight of the encapsulant, the particles having a substantially white color under white ambient light, characterized in that the average diameter of the particles is 0.25 micron, and the particles are randomly shaped. a semiconductor light emitting diode which in operation emits blue light; and an encapsulant over the LED, the encapsulant comprising a substantially transparent material containing inert non-phosphor particles, the particles being between 0.5%-10% by weight of the encapsulant, the particles having a substantially white color under white ambient light, characterized in that the average diameter of the particles is 0.25 micron, and the particles are randomly shaped.
Method for dispensing an aqueous, polymeric guanidine-containing biocide in the form of mist with an average droplet size of less than 10 μm into a room by means of ultrasonic technology for disinfecting the room, wherein the biocide is initially atomised using at least one ultrasonic membrane oscillating a few centimetres below the fluid surface, after which the atomised, aqueous polymeric disinfectant is dispensed into the room with air as the carrier medium.
A multiaxial fabric for use in a paper machine comprising: a base fabric woven from a plurality of machine direction and cross-machine direction yarns, wherein the cross-machine direction yarns are removed in a first and second seam area of the base fabric; wherein at least a portion of unneedled laminate is removed from the seam areas; characterized by a laminate attached to an outside portion of the base fabric by needling between the first and second seam areas and in that the base fabric with attached laminate is turned inside out and folded upon itself and joined at the seam areas and make the fabric endless with two layers of the base fabric and a layer of laminate therebetween. a base fabric woven from a plurality of machine direction and cross-machine direction yarns, wherein the cross-machine direction yarns are removed in a first and second seam area of the base fabric; wherein at least a portion of unneedled laminate is removed from the seam areas; characterized by a laminate attached to an outside portion of the base fabric by needling between the first and second seam areas and in that the base fabric with attached laminate is turned inside out and folded upon itself and joined at the seam areas and make the fabric endless with two layers of the base fabric and a layer of laminate therebetween.
A method of preparing a lysolecithin composition, the method comprising the steps of: (a) providing a lecithin mixture including a lecithin, water, and ethanol, wherein the lecithin contains phospholipids at least 60%, preferably at least 70% and more preferably at least 80%, by weight of the lecithin, and ethanol is present at 6 to 40%, preferably 10 to 15% by weight of the lecithin mixture; (b) adding phospholipase A1 or A2 to the lecithin mixture; and (c) allowing an enzymatic reaction to occur so that at least 70%, preferably at least 80% and more preferably at least 90%, of the phospholipids are converted to lysophospholipids to obtain the lysolecithin composition. (a) providing a lecithin mixture including a lecithin, water, and ethanol, wherein the lecithin contains phospholipids at least 60%, preferably at least 70% and more preferably at least 80%, by weight of the lecithin, and ethanol is present at 6 to 40%, preferably 10 to 15% by weight of the lecithin mixture; (b) adding phospholipase A1 or A2 to the lecithin mixture; and (c) allowing an enzymatic reaction to occur so that at least 70%, preferably at least 80% and more preferably at least 90%, of the phospholipids are converted to lysophospholipids to obtain the lysolecithin composition.
An injection molding machine comprising a structure for positioning a first mold part (122, 222, 322, 422) of a mold on a mold mounting face, the structure comprising: a positioner that is configured to connect the first mold part to part of the injection molding machine, wherein the positioner is adjustable to position the first mold part on the mold mounting face, the positioner is configured to hang the first mold part from the top of a first platen of the injection molding machine, characterized in that the positioner includes an adjustment block, a base plate and a precision leveler, wherein the adjustment block is configured to mount to a top face of a mold plate of the first mold part and to hang over a top face of the first platen, the base plate is configured to mount to the top face of the first platen, and the precision leveler is secured in between the adjustment block and the base plate, and wherein the precision leveler is configured to have a dimension that may be selected to lift or lower the first mold part on the mold mounting face of the first platen, and the precision leveler includes a first member, a second member, a wedge and a jack, wherein the first member and the second member have complementary surfaces that are inclined to the wedge, and wherein the jack is configured to position the wedge relative to the first member and the second member such that with repositioning of the wedge relative thereto the dimension of the precision leveler may be selected. a positioner that is configured to connect the first mold part to part of the injection molding machine, wherein the positioner is adjustable to position the first mold part on the mold mounting face, the positioner is configured to hang the first mold part from the top of a first platen of the injection molding machine, characterized in that the positioner includes an adjustment block, a base plate and a precision leveler, wherein the adjustment block is configured to mount to a top face of a mold plate of the first mold part and to hang over a top face of the first platen, the base plate is configured to mount to the top face of the first platen, and the precision leveler is secured in between the adjustment block and the base plate, and wherein the precision leveler is configured to have a dimension that may be selected to lift or lower the first mold part on the mold mounting face of the first platen, and the precision leveler includes a first member, a second member, a wedge and a jack, wherein the first member and the second member have complementary surfaces that are inclined to the wedge, and wherein the jack is configured to position the wedge relative to the first member and the second member such that with repositioning of the wedge relative thereto the dimension of the precision leveler may be selected.
An apparatus for performing voltage-based current sensing, the apparatus comprising: a voltage based current sensor, wherein the voltage based current sensor comprises a first voltage input and a second voltage input, an input amplifier, a voltage-to-current converter coupled to the input amplifier, a first oscillator and a second oscillator, wherein the first oscillator and the second oscillator are coupled to the voltage-to-current converter, wherein the input amplifier comprises a plus output and a minus output, and wherein the plus output and the minus output are coupled to the voltage-to-current converter, wherein the voltage-to-current converter comprises a first current output and a second current output, and wherein a first current value of the first current output is proportional to a first voltage value of the plus output and a second current value of the second current output is proportional to a second voltage value of the minus output; and a calibration module coupled to the voltage based current sensor, wherein the calibration module generates an analog to digital converter code. a voltage based current sensor, wherein the voltage based current sensor comprises a first voltage input and a second voltage input, an input amplifier, a voltage-to-current converter coupled to the input amplifier, a first oscillator and a second oscillator, wherein the first oscillator and the second oscillator are coupled to the voltage-to-current converter, wherein the input amplifier comprises a plus output and a minus output, and wherein the plus output and the minus output are coupled to the voltage-to-current converter, wherein the voltage-to-current converter comprises a first current output and a second current output, and wherein a first current value of the first current output is proportional to a first voltage value of the plus output and a second current value of the second current output is proportional to a second voltage value of the minus output; and a calibration module coupled to the voltage based current sensor, wherein the calibration module generates an analog to digital converter code.
Method for monitoring an additive manufacturing process in which a component is formed in an assembly space from a plurality of layers using a three-dimensional data model, a subsequent layer being fixed to a previous layer by means of a high energy beam, the component being detected optically and the assembly space being detected thermally when the layers are being applied, contour detection being carried out on the basis of the layer produced last, individual distortion of each layer being detected and the beam control for the following layer being adapted accordingly, characterized in that an optical 2D measurement is carried out after a powder has been applied and the contour detection is carried out as part of 2D image processing of an optical 2D measurement.
A high-frequency heating equipment comprising: a heating chamber for accommodating an object to be heated; a magnetron including a plurality of cooling fins and radiating an electromagnetic wave into the heating chamber; a power supply for driving the magnetron; a cooling fan for cooling the magnetron and the power supply; a temperature sensor for sensing a temperature of the magnetron; characterized by: a mounting bracket; an air guide for guiding an airflow supplied by the cooling fan; and a controller for controlling the power supply, the magnetron, and the cooling fan, wherein the temperature sensor is mounted with the mounting bracket such that the temperature sensor is pressed by a lateral face of the cooling fins and an end of the temperature sensor points to an anode of the magnetron on the downwind side of the cooling fan; wherein the mounting bracket comprises a temperature sensor holding section; wherein the temperature sensor is held by the temperature sensor holding section at the center of the plurality of cooling fins; and wherein the temperature sensor holding section restricts the airflow from the cooling fan to the temperature sensor. a heating chamber for accommodating an object to be heated; a magnetron including a plurality of cooling fins and radiating an electromagnetic wave into the heating chamber; a power supply for driving the magnetron; a cooling fan for cooling the magnetron and the power supply; a temperature sensor for sensing a temperature of the magnetron; characterized by: a mounting bracket; an air guide for guiding an airflow supplied by the cooling fan; and a controller for controlling the power supply, the magnetron, and the cooling fan, wherein the temperature sensor is mounted with the mounting bracket such that the temperature sensor is pressed by a lateral face of the cooling fins and an end of the temperature sensor points to an anode of the magnetron on the downwind side of the cooling fan; wherein the mounting bracket comprises a temperature sensor holding section; wherein the temperature sensor is held by the temperature sensor holding section at the center of the plurality of cooling fins; and wherein the temperature sensor holding section restricts the airflow from the cooling fan to the temperature sensor. a mounting bracket; an air guide for guiding an airflow supplied by the cooling fan; and a controller for controlling the power supply, the magnetron, and the cooling fan, wherein the temperature sensor is mounted with the mounting bracket such that the temperature sensor is pressed by a lateral face of the cooling fins and an end of the temperature sensor points to an anode of the magnetron on the downwind side of the cooling fan; wherein the mounting bracket comprises a temperature sensor holding section; wherein the temperature sensor is held by the temperature sensor holding section at the center of the plurality of cooling fins; and wherein the temperature sensor holding section restricts the airflow from the cooling fan to the temperature sensor.
An eyeglass lens piece configured for both forward and rearward viewing by a user, comprising: at least one curved transparent section extending in front of, above, between and below the user's eyes and a distance laterally from the sides of said user's eyes to the approximate sides of the user's head, a housing arranged in an edge section of the lens piece, projecting outwards from the lens piece, where one side of the housing is open to give the user direct sight line to the inside, and a mirror arranged in the housing in a position offset outwards from the curved transparent section. at least one curved transparent section extending in front of, above, between and below the user's eyes and a distance laterally from the sides of said user's eyes to the approximate sides of the user's head, a housing arranged in an edge section of the lens piece, projecting outwards from the lens piece, where one side of the housing is open to give the user direct sight line to the inside, and a mirror arranged in the housing in a position offset outwards from the curved transparent section.
A radiator thermostat comprising a source of electrical power and a drive unit powered by the source of electrical power, the drive unit being operatively connectable to a valve positioner adapted for control of a valve member whereby, in use, the drive unit determines a position of the valve member and thus flow of fluid through a fluid path, the thermostat further comprises a drive unit controller which is responsive to a temperature of an environment and which is adapted to control the drive unit and thus, in use, the position of said valve member as a function of a rate of change of that temperature, whereby said drive unit controller comprises a proportional integral derivative controller for control of the drive unit, characterised in that the PID controller comprises a microprocessor configured to receive measured or estimated room temperature, target temperature and radiator flow temperature and uses these as inputs to a predictive PID control algorithm, whereby an error is calculated as set point minus current temp minus projected error, whereby the size of the movement of the valve may be proportional to the error and whereby the projected error may be calculated as current rate of change extrapolated over a period of N minutes.
An image decoding method comprising: determining a context variable by comparison between a width of a top neighboring coding unit and a width of a current coding unit and comparison between a height of a left or right neighboring coding unit and a height of the current coding unit, wherein the top neighboring coding unit is decoded before the current coding unit, and the left or right neighboring coding unit is decoded before the current coding unit; determining a context index based on an area of the current coding unit being a product of the width and the height of the current coding unit; determining a context model based on the context variable and the context index; obtaining, from a bitstream, based on the context model, information about a split shape mode of the current coding unit; and when the split shape mode of the current coding unit is determined as a binary-split based on the information about the split shape mode, determining two coding units by splitting one of a width or a height of the current coding unit in half; when the split shape mode of the current coding unit is determined as a tri-split based on the information about the split shape mode, determining three coding units by splitting one of the width or the height of the current coding unit by a ratio of 1:2:1; and when the split shape mode of the current coding unit is determined as no-split based on the information about the split shape mode, decoding the current coding unit, wherein, when areas of coding units are the same, context indexes for the coding units are determined to be the same. determining a context variable by comparison between a width of a top neighboring coding unit and a width of a current coding unit and comparison between a height of a left or right neighboring coding unit and a height of the current coding unit, wherein the top neighboring coding unit is decoded before the current coding unit, and the left or right neighboring coding unit is decoded before the current coding unit; determining a context index based on an area of the current coding unit being a product of the width and the height of the current coding unit; determining a context model based on the context variable and the context index; obtaining, from a bitstream, based on the context model, information about a split shape mode of the current coding unit; and when the split shape mode of the current coding unit is determined as a binary-split based on the information about the split shape mode, determining two coding units by splitting one of a width or a height of the current coding unit in half; when the split shape mode of the current coding unit is determined as a tri-split based on the information about the split shape mode, determining three coding units by splitting one of the width or the height of the current coding unit by a ratio of 1:2:1; and when the split shape mode of the current coding unit is determined as no-split based on the information about the split shape mode, decoding the current coding unit, wherein, when areas of coding units are the same, context indexes for the coding units are determined to be the same.
A front loading wafer probe station having a chamber, comprising: a chuck movable between a test position and a loading position, wherein the test position and the loading position are within the chamber; a pivoting arm; and two wafer supporting segments, wherein each wafer supporting segment is rotatably mounted on an end of the pivoting arm, wherein the wafer supporting segments are movable between a position inside the chamber and a position at least partially outside the chamber, and wherein the wafer supporting segments are rotatable away from one another and out of the way of the chuck when at the position inside the chamber. a chuck movable between a test position and a loading position, wherein the test position and the loading position are within the chamber; a pivoting arm; and two wafer supporting segments, wherein each wafer supporting segment is rotatably mounted on an end of the pivoting arm, wherein the wafer supporting segments are movable between a position inside the chamber and a position at least partially outside the chamber, and wherein the wafer supporting segments are rotatable away from one another and out of the way of the chuck when at the position inside the chamber.