mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a decoder means to decode an instruction having fields for a first source operand and a second source operand, and a destination operand; and execution circuitry means to execute the decoded instruction to perform an arithmetic operation on packed data elements of the first source operand and store results of the arithmetic operation in the destination operand, wherein the arithmetic operation is defined by the instruction and the second source operand provides a distribution of the packed data elements stored in the first source operand amongst lanes of the execution circuitry means, wherein to execute the decoded instruction, the execution circuitry means is to, for each packed data element position of the destination operand, use data from each bit position of corresponding packed data element of the second source operand as an index into a packed data element position of the first source operand, generate a result of the arithmetic operation of each value from each indexed packed data element of the first source operand, and store the result into the packed data element position of the destination operand. a decoder means to decode an instruction having fields for a first source operand and a second source operand, and a destination operand; and execution circuitry means to execute the decoded instruction to perform an arithmetic operation on packed data elements of the first source operand and store results of the arithmetic operation in the destination operand, wherein the arithmetic operation is defined by the instruction and the second source operand provides a distribution of the packed data elements stored in the first source operand amongst lanes of the execution circuitry means, wherein to execute the decoded instruction, the execution circuitry means is to, for each packed data element position of the destination operand, use data from each bit position of corresponding packed data element of the second source operand as an index into a packed data element position of the first source operand, generate a result of the arithmetic operation of each value from each indexed packed data element of the first source operand, and store the result into the packed data element position of the destination operand. use data from each bit position of corresponding packed data element of the second source operand as an index into a packed data element position of the first source operand, generate a result of the arithmetic operation of each value from each indexed packed data element of the first source operand, and store the result into the packed data element position of the destination operand.
A method for triggering a location-based function in a mobile communication device, the method performed by the mobile communication device, the method comprising: detecting, in a mobile communication device, a Bluetooth beacon signal broadcasted by a Bluetooth beacon device; upon detecting the Bluetooth beacon signal determining a location of the mobile communication device at the time of detecting the Bluetooth beacon signal; characterized in that the method further comprises: determining whether or not the determined location maps to a determined area in which the detection of a Bluetooth beacon signal triggers the location-based function; if the determined location maps to the determined area, launching a location-based function in the mobile communication device and, if the determined location does not map to the determined area, not executing the location-based function. detecting, in a mobile communication device, a Bluetooth beacon signal broadcasted by a Bluetooth beacon device; upon detecting the Bluetooth beacon signal determining a location of the mobile communication device at the time of detecting the Bluetooth beacon signal; characterized in that the method further comprises: determining whether or not the determined location maps to a determined area in which the detection of a Bluetooth beacon signal triggers the location-based function; if the determined location maps to the determined area, launching a location-based function in the mobile communication device and, if the determined location does not map to the determined area, not executing the location-based function.
A vaginal insert device comprising: a support segment having a distal end and a proximal end, the support segment defining a support segment plane; and a stabilizing segment extending from the distal end of the support segment, the stabilizing segment defining a stabilizing segment plane, wherein the stabilizing segment plane is generally perpendicular to the support segment plane when the vaginal insert device is in an in-use configuration, characterized in that the support and stabilizing segments (102,104) are portions of a single device torus, wherein one side of the device torus is attached to an opposite side of the device torus to form the support and stabilizing segments, and wherein one side of the device torus is attached to an opposite side of the device torus to form a central joint by tying a string around the device torus; wherein the device comprises a compliable resilient material. a support segment having a distal end and a proximal end, the support segment defining a support segment plane; and a stabilizing segment extending from the distal end of the support segment, the stabilizing segment defining a stabilizing segment plane, wherein the stabilizing segment plane is generally perpendicular to the support segment plane when the vaginal insert device is in an in-use configuration, characterized in that the support and stabilizing segments (102,104) are portions of a single device torus, wherein one side of the device torus is attached to an opposite side of the device torus to form the support and stabilizing segments, and wherein one side of the device torus is attached to an opposite side of the device torus to form a central joint by tying a string around the device torus; wherein the device comprises a compliable resilient material.
A resist pattern forming process comprising providing a substrate having a surface composed mainly of a transition metal compound, providing a chemically amplified negative resist composition comprising a polymer comprising recurring units having the general formulae and: wherein R 1 and R 2 are each independently hydrogen or methyl, X is an electron withdrawing group selected from the group consisting of a halogen atom, nitro group, cyano group, sulfinyl group, and sulfonyl group, m is 0 or an integer of 1 to 4, and n is an integer of 1 to 5, said polymer having a weight average molecular weight of 1,000 to 50,000, and forming a resist pattern on the substrate surface using the chemically amplified negative resist composition.
An autonomous travel system comprising a plurality of vehicles, each including: a travel drive device adapted to drive a body; a position sensor for acquiring an own-vehicle position; a storage device storing map information; an in-vehicle control device adapted to, based on the own-vehicle position and the map information, output to the travel drive device a travel instruction to control traveling of the body so as to track a travel path based on the map information; and a wireless communication device that can communicate information with an outside, characterized in that each of the plurality of vehicles traveling at different locations in the autonomous travel system receives common offset information via the wireless communication device of each vehicle at a common timing, and wherein based on the common offset information received via the wireless communication device of each vehicle, the in-vehicle control device of each of the plurality of vehicles determines an offset amount of the travel path of the vehicle based on the map information of the vehicle, generates a target track, and outputs a travel instruction to control traveling of the body of the vehicle so as to track the target track to which the offset amount has been added based on the target track and the own-vehicle position of the vehicle. each of the plurality of vehicles traveling at different locations in the autonomous travel system receives common offset information via the wireless communication device of each vehicle at a common timing, and wherein based on the common offset information received via the wireless communication device of each vehicle, the in-vehicle control device of each of the plurality of vehicles determines an offset amount of the travel path of the vehicle based on the map information of the vehicle, generates a target track, and outputs a travel instruction to control traveling of the body of the vehicle so as to track the target track to which the offset amount has been added based on the target track and the own-vehicle position of the vehicle.
A method for generating a control signal for positioning a substrate of a manufacturing device, which can be height-adjusted in relation to a working surface, wherein the manufacturing device is designed for additive manufacturing of a three-dimensional component from powder, comprising the steps: arranging the building platform on the substrate, capturing a plurality of images (40A-40F) of the working surface in the region of the substrate, wherein an image-specific height of the substrate is adjusted before capturing one of the plurality of images and depending on the direction of change in height, a powder layer is applied or removed, determining a powder boundary line between a powder-free region and a powder-covered region of the building platform for at least two of the plurality of images (40A-40F), which have been captured for differently adjusted image-specific heights of the substrate; and producing a control signal for positioning the substrate based on the at least two powder boundary lines. arranging the building platform on the substrate, capturing a plurality of images (40A-40F) of the working surface in the region of the substrate, wherein an image-specific height of the substrate is adjusted before capturing one of the plurality of images and depending on the direction of change in height, a powder layer is applied or removed, determining a powder boundary line between a powder-free region and a powder-covered region of the building platform for at least two of the plurality of images (40A-40F), which have been captured for differently adjusted image-specific heights of the substrate; and producing a control signal for positioning the substrate based on the at least two powder boundary lines.
A method of controlling at least one lighting unit (800, 810, 820), the method comprising: receiving an AC line voltage; encoding dimming information to generate an encoded AC power signal, the encoded AC power signal having a substantially similar RMS value as the AC line voltage; and controlling and providing operating power to the at least one lighting unit (800, 810,820) based on the encoded AC power signal; characterized in that the at least one lighting unit (800, 810, 820) is at least one LED-based lighting unit, and the method further comprises: receiving a signal provided as output from a dimmer, the signal having one of an amplitude and a duty cycle adjusted with respect to the AC line voltage to provide the dimming information; extracting the dimming information from the signal provided as output from the dimmer; wherein the step of encoding the dimming information comprises encoding the received AC line voltage with the extracted dimming information so as to generate the encoded AC power signal. receiving an AC line voltage; encoding dimming information to generate an encoded AC power signal, the encoded AC power signal having a substantially similar RMS value as the AC line voltage; and controlling and providing operating power to the at least one lighting unit (800, 810,820) based on the encoded AC power signal; characterized in that the at least one lighting unit (800, 810, 820) is at least one LED-based lighting unit, and the method further comprises: receiving a signal provided as output from a dimmer, the signal having one of an amplitude and a duty cycle adjusted with respect to the AC line voltage to provide the dimming information; extracting the dimming information from the signal provided as output from the dimmer; wherein the step of encoding the dimming information comprises encoding the received AC line voltage with the extracted dimming information so as to generate the encoded AC power signal. receiving a signal provided as output from a dimmer, the signal having one of an amplitude and a duty cycle adjusted with respect to the AC line voltage to provide the dimming information; extracting the dimming information from the signal provided as output from the dimmer; wherein the step of encoding the dimming information comprises encoding the received AC line voltage with the extracted dimming information so as to generate the encoded AC power signal.
A method for controlling power production for a wind farm wherein the wind farm is electrically coupled to a power grid, the method comprising: receiving time series data of actual power produced by the wind farm at a plurality of time instances in a data receiving time interval; deriving a plurality of power characteristic features from the time series data at each time instance from the plurality of time instances; generating power production forecast data for the wind farm for a forecast time interval using the plurality of power characteristic features and a set of tunable coefficients derived using a tunable power forecasting model, wherein the tunable power forecasting model is based on an asymmetric loss function applied on a history of time series data of actual power produced by the wind farm, and wherein the tunable power forecasting model characterizes optimal wind farm performance; and controlling wind farm power production based at least in part on the power production forecast data. receiving time series data of actual power produced by the wind farm at a plurality of time instances in a data receiving time interval; deriving a plurality of power characteristic features from the time series data at each time instance from the plurality of time instances; generating power production forecast data for the wind farm for a forecast time interval using the plurality of power characteristic features and a set of tunable coefficients derived using a tunable power forecasting model, wherein the tunable power forecasting model is based on an asymmetric loss function applied on a history of time series data of actual power produced by the wind farm, and wherein the tunable power forecasting model characterizes optimal wind farm performance; and controlling wind farm power production based at least in part on the power production forecast data.
A dental implantation system, comprising: an implantation device adapted to prepare a site within a mouth of a patient for receiving a dental implant; a guidance device comprising a communication element, the communication element being operably engaged and in communication with the implantation device; and a splint adapted to engage the mouth of the patient, the splint being in communication with the guidance device cooperable therewith to determine a fiducial marker, wherein the fiducial marker is configured to be communicated to the implantation device via the communication element in wireless communication with the splint such that the implantation device is in communication with the fiducial marker, the guidance device thereby being configured to guide the implantation device in relation to the fiducial marker to prepare the site for receiving the dental implant. an implantation device adapted to prepare a site within a mouth of a patient for receiving a dental implant; a guidance device comprising a communication element, the communication element being operably engaged and in communication with the implantation device; and a splint adapted to engage the mouth of the patient, the splint being in communication with the guidance device cooperable therewith to determine a fiducial marker, wherein the fiducial marker is configured to be communicated to the implantation device via the communication element in wireless communication with the splint such that the implantation device is in communication with the fiducial marker, the guidance device thereby being configured to guide the implantation device in relation to the fiducial marker to prepare the site for receiving the dental implant.
An apparatus (1300A, 1300B) for wirelessly transferring power from a charging power source to a device, the apparatus comprising: a first strand (1312b, 1316b) wound in one or more turns and operationally coupled to the charging power source; a second strand (1312a, 1316a) wound together with the first strand in one or more turns and operationally coupled to the charging power source; and characterized by: an inductor circuit (1302, 1304) connected to the first strand and disconnected from the second strand, the inductor circuit configured to compensate an inductance imbalance between the first and the second strands so that it reduces a current difference between a first current flowing through the first strand and a second current flowing through the second strand. a first strand (1312b, 1316b) wound in one or more turns and operationally coupled to the charging power source; a second strand (1312a, 1316a) wound together with the first strand in one or more turns and operationally coupled to the charging power source; and an inductor circuit (1302, 1304) connected to the first strand and disconnected from the second strand, the inductor circuit configured to compensate an inductance imbalance between the first and the second strands so that it reduces a current difference between a first current flowing through the first strand and a second current flowing through the second strand.
An excavator comprising: a lower traveling structure; an upper swing structure swingably mounted on the lower traveling structure; and an attachment attached to the upper swing structure; characterized in that the excavator comprises a display device configured to display a plurality of ranges including a first range and a second range lower in stability degree than the first range in a working range of the attachment such that the plurality of ranges are distinguishable; and a stability range setting part configured to determine a setting with respect to the plurality of ranges. a lower traveling structure; an upper swing structure swingably mounted on the lower traveling structure; and an attachment attached to the upper swing structure; the excavator comprises a display device configured to display a plurality of ranges including a first range and a second range lower in stability degree than the first range in a working range of the attachment such that the plurality of ranges are distinguishable; and a stability range setting part configured to determine a setting with respect to the plurality of ranges.
An air processing device comprising: a casing in which air flows; a tray for receiving water; a discharge portion for discharging water in the tray; an imaging unit and a processing unit characterized in that the imaging unit acquires a plurality of image data of the tray as a predetermined object (45a, 60) to be imaged in the casing; and the processing unit is configured to determine a dirt of the tray or an abnormality of the discharge portion as the state of at least one predetermined part (45, 66, 68) in the casing on the basis of a change in the plurality of image data acquired by the imaging unit. a casing in which air flows; a tray for receiving water; a discharge portion for discharging water in the tray; an imaging unit and a processing unit characterized in that the imaging unit acquires a plurality of image data of the tray as a predetermined object (45a, 60) to be imaged in the casing; and the processing unit is configured to determine a dirt of the tray or an abnormality of the discharge portion as the state of at least one predetermined part (45, 66, 68) in the casing on the basis of a change in the plurality of image data acquired by the imaging unit.
A thermoplastic composition, in particular for use in extrusion and compounding, comprising: (a) a continuous phase that has at least one first polymer which is selected from a group containing a polyester, a polyesteramide, a polyester etheramide, an aliphatic or partially aromatic polyester urethane or blends thereof, in particular such compounds or blends which have hydrophobic surface properties, (b) at least one dispersed phase, (i) which comprises, as a second polymer, at least one biogenic crosslinking agent having a water content of 0.1 % to 30 % by weight, in particular of 5 % to 25 % by weight with respect to the total weight thereof, and wherein the first polymer of the continuous phase is not miscible with the second polymer of the dispersed phase, and (ii) which has at least one inorganic filler, in a proportion of 0.1 % to 40 % by weight with respect to the total weight of the composition, and (iii) which has at least one plasticizer, wherein the plasticizer contains diglycerol or blends with diglycerol, characterized in that the plasticizer diglycerol has an enantiomeric ratio of: 50 % to 70 % by weight for α,α'-diglycerol, and 25 % to 40 % by weight for α,β-diglycerol, and 2 % to 10 % by weight for β,β'-diglycerol, with respect to the sum of the α,α'-, α,β-, and β,β'-diglycerol (a) a continuous phase that has at least one first polymer which is selected from a group containing a polyester, a polyesteramide, a polyester etheramide, an aliphatic or partially aromatic polyester urethane or blends thereof, in particular such compounds or blends which have hydrophobic surface properties, (b) at least one dispersed phase, (i) which comprises, as a second polymer, at least one biogenic crosslinking agent having a water content of 0.1 % to 30 % by weight, in particular of 5 % to 25 % by weight with respect to the total weight thereof, and wherein the first polymer of the continuous phase is not miscible with the second polymer of the dispersed phase, and (ii) which has at least one inorganic filler, in a proportion of 0.1 % to 40 % by weight with respect to the total weight of the composition, and (iii) which has at least one plasticizer, wherein the plasticizer contains diglycerol or blends with diglycerol, (i) which comprises, as a second polymer, at least one biogenic crosslinking agent having a water content of 0.1 % to 30 % by weight, in particular of 5 % to 25 % by weight with respect to the total weight thereof, and wherein the first polymer of the continuous phase is not miscible with the second polymer of the dispersed phase, and (ii) which has at least one inorganic filler, in a proportion of 0.1 % to 40 % by weight with respect to the total weight of the composition, and (iii) which has at least one plasticizer, wherein the plasticizer contains diglycerol or blends with diglycerol, 50 % to 70 % by weight for α,α'-diglycerol, and 25 % to 40 % by weight for α,β-diglycerol, and 2 % to 10 % by weight for β,β'-diglycerol,