mhurhangee/ep-ind-claims huggingface dataset:
A processing device for determining data related to a progression of refractive values of a person, wherein the progression of the refractive values is a forecast of a temporal alteration of the refractive values of at least one eye of the person over a period of time, wherein the processing device is configured to: o receive at least one input file comprising data related to a person, comprising • a refractive status of the person; • age, gender and ethnicity of the person; and • at least one risk factor related to the person, o provide at least one output file comprising data related to a progression of refractive values of the person determined by using at least one machine learning algorithm, wherein the at least one machine learning algorithm is configured to determine the data related to the progression of the refractive values of the person from the data related to the person by using the data from the at least one input file in a determining step, wherein the at least one machine learning algorithm comprises at least one prediction model for determining a relationship between the data related to the person and the progression of the refractive values of the person, characterized in that the at least one machine learning algorithm comprises using a first prediction model and a second prediction model, wherein, in a first prediction step of the determining step, the first prediction model generates intermediate prediction data comprising a ratio of an axial length divided by a corneal radius for the person by using Support Vector Regression, wherein the intermediate prediction data are used as input for the second prediction model, wherein, in a second prediction step of the determining step, the second prediction model predicts the progression of the refractive values of the person, wherein the second prediction model is a second linear prediction model using Gaussian Process Regression. o receive at least one input file comprising data related to a person, comprising • a refractive status of the person; • age, gender and ethnicity of the person; and • at least one risk factor related to the person, • a refractive status of the person; • age, gender and ethnicity of the person; and • at least one risk factor related to the person, o provide at least one output file comprising data related to a progression of refractive values of the person determined by using at least one machine learning algorithm, wherein the at least one machine learning algorithm is configured to determine the data related to the progression of the refractive values of the person from the data related to the person by using the data from the at least one input file in a determining step, wherein the at least one machine learning algorithm comprises at least one prediction model for determining a relationship between the data related to the person and the progression of the refractive values of the person,
A guide device for a pair of slidable doors of a container, particularly of a wardrobe, in which said doors (4, 4') are contained between a top and a bottom of the container, characterised by comprising: - a pair of guides (10, 12) to be applied to the lower surface of said top and to the upper surface of said bottom, each guide comprising a track with a rectilinear portion and with two end portions (20, 20') inclined forwards with respect to said rectilinear portion, and a two way double changeover switch element inserted into the centre of said rectilinear portion and comprising a rectilinear branch, creating continuity with the rectilinear portion of the track of said guide (10, 12), a pair of deviated branches (26, 26') inclined forwards in the opposite direction to said rectilinear branch, and a pair of tongues (30, 30') associated with elastic means to maintain them independently in the deviated position and each provided with an appendix interfering with the respective deviated branch (26, 26') when the tongue (30, 30') is in the deviated position and not interfering with said deviated portion when the tongue is in the non-deviated position, - a first pair of carriages (14, 14') applied in proximity to the ends of the upper edge of each door (4, 4') and each provided with a pin (38, 38') engagable in the track of said upper guide, - a second pair of carriages (16, 16') applied in proximity to the ends of the lower edge of each door (4, 4') and each provided with a pin (40, 40') engagable in the track of said lower guide, and with a wheel to rest on and slidable on said lower guide. - a pair of guides (10, 12) to be applied to the lower surface of said top and to the upper surface of said bottom, each guide comprising a track with a rectilinear portion and with two end portions (20, 20') inclined forwards with respect to said rectilinear portion, and a two way double changeover switch element inserted into the centre of said rectilinear portion and comprising a rectilinear branch, creating continuity with the rectilinear portion of the track of said guide (10, 12), a pair of deviated branches (26, 26') inclined forwards in the opposite direction to said rectilinear branch, and a pair of tongues (30, 30') associated with elastic means to maintain them independently in the deviated position and each provided with an appendix interfering with the respective deviated branch (26, 26') when the tongue (30, 30') is in the deviated position and not interfering with said deviated portion when the tongue is in the non-deviated position, - a first pair of carriages (14, 14') applied in proximity to the ends of the upper edge of each door (4, 4') and each provided with a pin (38, 38') engagable in the track of said upper guide, - a second pair of carriages (16, 16') applied in proximity to the ends of the lower edge of each door (4, 4') and each provided with a pin (40, 40') engagable in the track of said lower guide, and with a wheel to rest on and slidable on said lower guide.
A trajectory detection method, comprising: receiving, on a first vehicle, from a second vehicle, dynamic data containing at least one dynamic feature of the second vehicle; detecting a relative position of the second vehicle with regard to the first vehicle using an object detection sensor mounted on the first vehicle; and generating a trajectory of the second vehicle based on the relative position and the dynamic data, wherein the dynamic data are generated at different time points and transmitted in packets, and the method further comprises: obtaining a first set of time points (11, 13, 15, 17) respectively representing when the packets are sent from the second vehicle; subtracting each one of the first set of time points (11, 13, 15, 17) by a predetermined value to obtain a second set of time points (21, 23, 25, 27); detecting the relative position of the second vehicle with regard to the first vehicle at one of the second set of time points (21, 23, 25, 27); and calculating the trajectory of the second vehicle based on the relative position, the dynamic data and the second set of time points (21, 23, 25, 27). receiving, on a first vehicle, from a second vehicle, dynamic data containing at least one dynamic feature of the second vehicle; detecting a relative position of the second vehicle with regard to the first vehicle using an object detection sensor mounted on the first vehicle; and generating a trajectory of the second vehicle based on the relative position and the dynamic data, wherein the dynamic data are generated at different time points and transmitted in packets, and the method further comprises: obtaining a first set of time points (11, 13, 15, 17) respectively representing when the packets are sent from the second vehicle; subtracting each one of the first set of time points (11, 13, 15, 17) by a predetermined value to obtain a second set of time points (21, 23, 25, 27); detecting the relative position of the second vehicle with regard to the first vehicle at one of the second set of time points (21, 23, 25, 27); and calculating the trajectory of the second vehicle based on the relative position, the dynamic data and the second set of time points (21, 23, 25, 27). obtaining a first set of time points (11, 13, 15, 17) respectively representing when the packets are sent from the second vehicle; subtracting each one of the first set of time points (11, 13, 15, 17) by a predetermined value to obtain a second set of time points (21, 23, 25, 27); detecting the relative position of the second vehicle with regard to the first vehicle at one of the second set of time points (21, 23, 25, 27); and calculating the trajectory of the second vehicle based on the relative position, the dynamic data and the second set of time points (21, 23, 25, 27).
A method for filtering gas in communication with a semiconductor processing tool, the method comprising: providing a filtering system comprising a first filter layer and a second filter layer, wherein the first filter layer is upstream along a gas flow path from the second filter layer; providing a gas stream to the filtering system, the gas stream comprising the contaminants hexamethyldisiloxane and trimethylsilanol; passing the gas stream through the first filter layer of the filtering system; and passing the gas stream through the second filter layer of the filtering system; and wherein either: (i) the concentration of hexamethyldisiloxane in the gas stream is higher than that of trimethylsilanol and the first filter layer comprises a physisorptive media and the second filter layer comprises a chemisorptive media; or (ii) the concentration of trimethylsilanol in the gas stream is higher than that of hexamethyldisiloxane and the first filter layer comprises a chemisorptive media and the second filter layer comprises a physisorptive media. providing a filtering system comprising a first filter layer and a second filter layer, wherein the first filter layer is upstream along a gas flow path from the second filter layer; providing a gas stream to the filtering system, the gas stream comprising the contaminants hexamethyldisiloxane and trimethylsilanol; passing the gas stream through the first filter layer of the filtering system; and passing the gas stream through the second filter layer of the filtering system; and wherein either: (i) the concentration of hexamethyldisiloxane in the gas stream is higher than that of trimethylsilanol and the first filter layer comprises a physisorptive media and the second filter layer comprises a chemisorptive media; or (ii) the concentration of trimethylsilanol in the gas stream is higher than that of hexamethyldisiloxane and the first filter layer comprises a chemisorptive media and the second filter layer comprises a physisorptive media. (i) the concentration of hexamethyldisiloxane in the gas stream is higher than that of trimethylsilanol and the first filter layer comprises a physisorptive media and the second filter layer comprises a chemisorptive media; or (ii) the concentration of trimethylsilanol in the gas stream is higher than that of hexamethyldisiloxane and the first filter layer comprises a chemisorptive media and the second filter layer comprises a physisorptive media.
Bandsaw for converting materials arranged in logs into sections of predetermined minimum length, comprising: - a shaped band blade; - at least one pair of flywheels (5, 6) arranged to move said band blade; - a motor member, connected to at least one of said flywheels belonging to said at least one pair of flywheels (5, 6); - a bench for supporting and feeding at least one log to be cut, wherein said shaped band blade comprises a band having a variable width between an area of minimum width and an area of maximum width, characterized in that the variation in width of said band blade from said area of minimum width to said area of maximum width takes place according to a linear trend, wherein the variation in width of said band blade from said area of minimum width to said area of maximum width defines a cutting edge inclined with respect to the cutting direction of the blade, and wherein said blade is configured to allow a movement of the logs close to the area of minimum width of the band blade in such a way that said band blade can make the cut, by means of said inclined cutting edge, during a subsequent passage of the area of maximum width of said blade. - a shaped band blade; - at least one pair of flywheels (5, 6) arranged to move said band blade; - a motor member, connected to at least one of said flywheels belonging to said at least one pair of flywheels (5, 6); - a bench for supporting and feeding at least one log to be cut,
A hot-air engine including: a compressor with an inlet and an outlet; a heating chamber with an inlet, in fluid communication with the outlet of the compressor, and an outlet; a rotary displacement type working engine with an inlet, in fluid communication with the outlet of the heating chamber, and an output shaft; and a drive means connecting the working engine to the compressor such that operation of the working engine causes operation of the compressor, characterised in that the working engine has a capacity of 20%-50% more than the capacity of the compressor, and the rotary displacement type working engine is a Roots type blower working engine. a compressor with an inlet and an outlet; a heating chamber with an inlet, in fluid communication with the outlet of the compressor, and an outlet; a rotary displacement type working engine with an inlet, in fluid communication with the outlet of the heating chamber, and an output shaft; and a drive means connecting the working engine to the compressor such that operation of the working engine causes operation of the compressor, characterised in that the working engine has a capacity of 20%-50% more than the capacity of the compressor, and the rotary displacement type working engine is a Roots type blower working engine.
A multilayer laminate comprising a first layer made of a blend of polymers comprising polyethylene terephthalate and a material selected from low-density polyethylene, medium density polyethylene and high density polyethylene; a second layer made of said blend of polymers; and a third layer arranged between said first and second layer (11, 12), said third layer being made of said blend of polymers comprising added glass fibers, wherein the polymer blend comprises from 6% to 14% by weight of one among low-density polyethylene, medium density polyethylene or high density polyethylene, the remainder being polyethylene terephthalate.
A multi-channel receiver optical subassembly, ROSA, comprising: a ROSA housing; an optical demultiplexer located in the ROSA housing, the optical demultiplexer including multiple optical outputs corresponding to multiple channels, the optical demultiplexer being configured to receive a wavelength division multiplexed, WDM, optical signal on multiple channel wavelengths and to demultiplex the WDM optical signal to produce demultiplexed optical signals on the multiple channel wavelengths, respectively; an array of photodetectors located in the ROSA housing, the array of photodetectors aligned with and directly optically coupled to the multiple optical outputs, respectively, of the optical demultiplexer; and wherein the array of photodetectors includes a plurality of PIN photodiodes mounted on a photodetector mounting bar and a plurality of transimpedance amplifiers, TIAs, mounted on the same photodetector mounting bar together with the plurality of PIN photodiodes, each of the PIN photodiodes of the plurality of PIN photodiodes being wire bonded to respective ones of the TIAs based on wire bonding points, and wherein the wire bonding points are located on a region of each of the photodiodes of the plurality of photodiodes that faces in a direction of the optical demultiplexer but extends above the optical demultiplexer such that the wire bonding points do not oppose the optical demultiplexer when directly optically coupled. a ROSA housing; an optical demultiplexer located in the ROSA housing, the optical demultiplexer including multiple optical outputs corresponding to multiple channels, the optical demultiplexer being configured to receive a wavelength division multiplexed, WDM, optical signal on multiple channel wavelengths and to demultiplex the WDM optical signal to produce demultiplexed optical signals on the multiple channel wavelengths, respectively; an array of photodetectors located in the ROSA housing, the array of photodetectors aligned with and directly optically coupled to the multiple optical outputs, respectively, of the optical demultiplexer; and wherein the array of photodetectors includes a plurality of PIN photodiodes mounted on a photodetector mounting bar and a plurality of transimpedance amplifiers, TIAs, mounted on the same photodetector mounting bar together with the plurality of PIN photodiodes, each of the PIN photodiodes of the plurality of PIN photodiodes being wire bonded to respective ones of the TIAs based on wire bonding points, and wherein the wire bonding points are located on a region of each of the photodiodes of the plurality of photodiodes that faces in a direction of the optical demultiplexer but extends above the optical demultiplexer such that the wire bonding points do not oppose the optical demultiplexer when directly optically coupled.
A sound output apparatus comprising: a sound generation unit configured to be disposed at a back of an ear of a listener; a sound guiding unit whose one end is configured to be connected to the sound generation unit and whose other end is configured to be disposed in a pinna of the listener, and which is configured to take in sound generated by the sound generation unit from the one end, to propagate the sound to the other end, and has an unfilled structure; a holding unit configured to hold the other end of the sound guiding unit at an intertragic notch in a vicinity of and outside an entrance of an ear canal of the listener when the holding unit is inserted into a cavum concha of the listener, wherein the holding unit comprises an opening portion to open the entrance of the ear to the outer world in a state of holding the other end, wherein the other end of the sound guiding unit is coupled to an inner periphery of the opening portion, wherein the other end of the sound guiding unit is substantially flush with a bottom face of the holding unit facing the cavum concha, and a wire connected downward from the sound guiding unit. a sound generation unit configured to be disposed at a back of an ear of a listener; a sound guiding unit whose one end is configured to be connected to the sound generation unit and whose other end is configured to be disposed in a pinna of the listener, and which is configured to take in sound generated by the sound generation unit from the one end, to propagate the sound to the other end, and has an unfilled structure; a holding unit configured to hold the other end of the sound guiding unit at an intertragic notch in a vicinity of and outside an entrance of an ear canal of the listener when the holding unit is inserted into a cavum concha of the listener, wherein the holding unit comprises an opening portion to open the entrance of the ear to the outer world in a state of holding the other end, wherein the other end of the sound guiding unit is coupled to an inner periphery of the opening portion, wherein the other end of the sound guiding unit is substantially flush with a bottom face of the holding unit facing the cavum concha, and a wire connected downward from the sound guiding unit.
A sealing member for sound and/or vibration damping having a uniform composition, optionally with an adhesive layer attached thereto, characterized in that the sealing member comprises a thermoplastic elastomer as the main component, wherein the thermoplastic elastomer is selected from a compound comprising an elastomeric component at a content of 60 to 98% by weight and a thermoplastic component at a content of 2 to 40% by weight based on the total weight of the thermoplastic elastomer, and wherein the sealing member comprises one or more hollow internal cavity/cavities. wherein the thermoplastic elastomer is selected from a compound comprising an elastomeric component at a content of 60 to 98% by weight and a thermoplastic component at a content of 2 to 40% by weight based on the total weight of the thermoplastic elastomer, and wherein the sealing member comprises one or more hollow internal cavity/cavities.
A computing device comprising: a network interface device (101, 408, 703); a processing element (103, 402, 701); and an output to a main processor, wherein the processing element is arranged to: perform networking operations on behalf of the main processor when the main processor is powered down (203, 504), wherein the networking operations comprise establishing a connection on behalf of the main processor while the main processor is powered down and/or detecting a connection opportunity on behalf of the main processor while the main processor is powered down; send a wake up signal to the main processor via the output when defined criteria are satisfied (206, 507); and provide state information to the main processor on wake up. a network interface device (101, 408, 703); a processing element (103, 402, 701); and an output to a main processor, wherein the processing element is arranged to: perform networking operations on behalf of the main processor when the main processor is powered down (203, 504), wherein the networking operations comprise establishing a connection on behalf of the main processor while the main processor is powered down and/or detecting a connection opportunity on behalf of the main processor while the main processor is powered down; send a wake up signal to the main processor via the output when defined criteria are satisfied (206, 507); and provide state information to the main processor on wake up. perform networking operations on behalf of the main processor when the main processor is powered down (203, 504), wherein the networking operations comprise establishing a connection on behalf of the main processor while the main processor is powered down and/or detecting a connection opportunity on behalf of the main processor while the main processor is powered down; send a wake up signal to the main processor via the output when defined criteria are satisfied (206, 507); and provide state information to the main processor on wake up.
A method for producing a cluster of thin sheet graphite crystals composed of aggregates in such a state that thin sheet graphite crystals extend from the inside toward the outside, comprising preparing a powdery and/or particulate material of an organic compound pre-baked to an extent of containing remaining hydrogen, charging the powdery and/or particulate material in a closed vessel made of a heat resistant material, and subjecting the powdery and/or particulate material together with the vessel to hot isostatic pressing treatment using a compressed gas atmosphere, wherein the closed vessel made of heat resistant material is a crucible made of graphite, the pre-baking temperature in the pre-baking is 850°C or lower, and the maximum ultimate temperature in the hot isostatic pressing treatment is within the range from 1200 °C to 1900 °C, and a true density of the cluster of thin sheet graphite crystals is 2.0 g/cm 3 or more.