mhurhangee/patent-ind-claim-en huggingface dataset:
A multipurpose vehicle comprising: an engine ; a traveling transmission which is provided behind the engine and outputs power to traveling wheels ; a stepless speed changer which is provided at one of lateral sides of a vehicle body with respect to the engine and the traveling transmission , and configured to receive power of the engine , to speed-change the power and to output it to the traveling transmission ; and an engine output shaft projected from the engine toward the stepless speed changer along a lateral direction of the vehicle body ; characterized in that it comprises a speed changer input shaft projected from the stepless speed changer toward the engine along the lateral direction of the vehicle body ; a first gear transmission mechanism provided between and across the engine output shaft and the speed changer input shaft for transmitting power of the engine output shaft to the speed changer input shaft such that the speed changer input shaft is operably connected to the engine output shaft with the first gear transmission mechanism ; and a power takeoff (PTO) section provided on a side of the stepless speed changer with respect to the engine and forwardly of the stepless speed changer , the PTO section being operably connected to the engine output shaft via a second gear transmission mechanism . an engine ; a traveling transmission which is provided behind the engine and outputs power to traveling wheels ; a stepless speed changer which is provided at one of lateral sides of a vehicle body with respect to the engine and the traveling transmission , and configured to receive power of the engine , to speed-change the power and to output it to the traveling transmission ; and an engine output shaft projected from the engine toward the stepless speed changer along a lateral direction of the vehicle body ; characterized in that it comprises a speed changer input shaft projected from the stepless speed changer toward the engine along the lateral direction of the vehicle body ; a first gear transmission mechanism provided between and across the engine output shaft and the speed changer input shaft for transmitting power of the engine output shaft to the speed changer input shaft such that the speed changer input shaft is operably connected to the engine output shaft with the first gear transmission mechanism ; and a power takeoff (PTO) section provided on a side of the stepless speed changer with respect to the engine and forwardly of the stepless speed changer , the PTO section being operably connected to the engine output shaft via a second gear transmission mechanism .
A positive electrode for an air battery, characterized by comprising an expanded graphite sheet comprising an expanded graphite and a polyolefin resin, the bulk density of the expanded graphite sheet being from 0.5 g/cm 3 to 1.8 g/cm 3 , the polyolefin resin being contained in an amount of from 3 parts by weight to 20 parts by weight with respect to 100 parts by weight of the expanded graphite, and the expanded graphite sheet having a surface resistivity of less than or equal to 70 mQ/sq.
A low-temperature-resistant hot-rolled H-type steel for marine engineering having a yield strength > 355 MPa, a tensile strength > 470 MPa, an elongation > 22%, transverse impact energy > 51 J at -30°C, a longitudinal impact energy ≥ 110 J at -60°C, and a tough-brittle transition temperature below -65°C, measured according to the description, wherein chemical components of the H-type steel comprise, in percentage by weight, 0.040-0.070 of C, 0.015-0.30 of Si, 1.20-1.50 of Mn, less than or equal to 0.015 of P, less than or equal to 0.010 of S, 0.020-0.040 of Nb, 0.008-0.025 of Ti, 0.10-0.50 of Ni, 0.015-0.050 of Al, 0.0003-0.0008 of B, less than or equal to 0.04 of As+Sn+Cu+Zn, less than or equal to 0.0040 of N and less than or equal to 0.0015 of total oxygen content, the rest are Fe and inevitable impurities, and gases in the steel is controlled during smelting to less than or equal to 0.0040 of N and less than or equal to 0.0015 of total oxygen content in percentage by weight and wherein a flange thickness of the finished rolled product specification is in the range of 8-15 mm.
A method comprising: recording an optical information code on an information recording medium, the information recording medium being one on which image recording is performed by irradiation with laser beams; wherein the image density of the optical information code image is increased over time after the image recording, and thereafter a desired image density is achieved by reducing the image density through heat treatment of the information recording medium; the method further comprising: reading the optical information code image by an optical information code scanner after the desired image density has been reached, wherein a time interval from completion of the image recording of the optical information code image to the reading of the optical information code image is 10 seconds or shorter; and correcting, using an an amplitude tuning unit comprised as part of the optical information code scanner, a detected amplitude level of reflectivity from the information recording medium on which the optical information code image has been recorded; and storing the corrected detected amplitude level. recording an optical information code on an information recording medium, the information recording medium being one on which image recording is performed by irradiation with laser beams; wherein the image density of the optical information code image is increased over time after the image recording, and thereafter a desired image density is achieved by reducing the image density through heat treatment of the information recording medium; the method further comprising: reading the optical information code image by an optical information code scanner after the desired image density has been reached, wherein a time interval from completion of the image recording of the optical information code image to the reading of the optical information code image is 10 seconds or shorter; and correcting, using an an amplitude tuning unit comprised as part of the optical information code scanner, a detected amplitude level of reflectivity from the information recording medium on which the optical information code image has been recorded; and reading the optical information code image by an optical information code scanner after the desired image density has been reached, wherein a time interval from completion of the image recording of the optical information code image to the reading of the optical information code image is 10 seconds or shorter; and correcting, using an an amplitude tuning unit comprised as part of the optical information code scanner, a detected amplitude level of reflectivity from the information recording medium on which the optical information code image has been recorded; and storing the corrected detected amplitude level.
Lightweight component, comprising cover layers (100; 30, 40, 50, 60) and a honeycomb core , wherein the cover layers adjacent on both sides to the honeycomb core have a fabric as reinforcing fibers, the lightweight component being assigned a main loading direction which corresponds to the L direction of the continuous paper web of the honeycomb core material, the fabric comprising on both sides at least three prepregs which lie one above the other and are each in the form of a unidirectional fabric , a first of said unidirectional fabrics being oriented at +45 degrees to said L direction, a second of said unidirectional fabrics being oriented at 0 degrees parallel to said L direction, and a third of said unidirectional fabrics being oriented at -45 degrees to said L direction, characterized in that the order of the three fabrics at increasing distance from the honeycomb core is such that the fabrics with the fibers oriented on average 0 degrees to the L-direction are located furthest from the honeycomb core .
A modular machine for baking flexible and leak-proof cones from batter, comprising a base frame on which are arranged conical female moulds with their axis parallel to a vertical axis (Z'Z) when in use and a support for conical male moulds with their axis parallel to the vertical axis (Z'Z) when in use, this support being mobile along the vertical axis (Z'Z) between a cooking position, in which the male moulds are inserted into the female moulds with a predetermined gap, and a cone retrieval position in which the male moulds are separated from the female moulds , the modular machine is characterized in that the female moulds are integrated in a metal frame placed against metal longitudinal receiving panels defining a free space (E) and at least one of these receiving panels is in contact with a heating element , and in that the male moulds , each having a heating rod extending in a bore , are coupled to the mobile support by releasable connectors .
A composition comprising a blend of (a) dried microorganism, and (b) a phosphate salt in powder form, wherein the phosphate salt is selected from K 2 HPO 4 , KH 2 PO 4 , Na 2 HPO 4 , NaH 2 PO 4 , MgHPO 4 , Mg[H 2 PO 4 ] 2 and mixtures thereof, and wherein the phosphate salt is present in an amount of at least 50 wt% based on the total weight of microorganism and phosphate salt.
A modified polytetrafluoroethylene fine powder which is a fine powder of a non-melt-moldable modified polytetrafluoroethylene, wherein the modified polytetrafluoroethylene comprises units derived from tetrafluoroethylene, units derived from a perfluoroalkyl vinyl ether represented by the formula (I) and units derived from a perfluoroalkylethylene represented by the formula (II), characterized in that the content of the units derived from the perfluoroalkyl vinyl ether is from 0.1 to 0.15 mass% and the content of the units derived from a perfluoroalkylethylene is from 0.002 to 0.015 mass%, based on all monomer units in the modified polytetrafluoroethylene: CF 2 =CFO-C n F 2n+1 (I) wherein n is an integer of from 1 to 6, CH 2 =CH-C m F 2m+1 (II) wherein m is an integer of from 3 to 6.
An offshore drilling vessel configured to be powered by at least one submersible cable , and comprising: - a hull ; - at least one opening in the hull arranged to receive an end of at least one submersible cable ; and - a cable connector configured to couple to the end of the at least one submersible cable when the end of the at least one submersible cable is in the raised position such that the offshore drilling vessel comprises a power connection via the submersible cable , characterised in that the drilling vessel comprises a cable capture mechanism configured to lift the end of the at least one submersible cable through the at least one opening from a submersed position to a raised position. - a hull ; - at least one opening in the hull arranged to receive an end of at least one submersible cable ; and - a cable connector configured to couple to the end of the at least one submersible cable when the end of the at least one submersible cable is in the raised position such that the offshore drilling vessel comprises a power connection via the submersible cable ,
A rack mounting system, applicable to a rack , the rack mounting system comprising: a mounting mechanisms configured to be detachably mounted to a first side of the rack and movable relative to the first side of the rack , a first connecting assembly configured to be detachably mounted to a second side of the rack ; a second connecting assembly connected to the mounting mechanism ; and characterized by : the mounting mechanism comprising a base plate detachably mounted on the rack and at least one sliding member connected to the second connecting assembly , the at least one sliding member being slidable relative to the base plate, so as to adjust a distance between the first connecting assembly and the second connecting assembly ; wherein the first connecting assembly and the second connecting assembly are configured to carry a first chassis with a first chassis width when the mounting mechanism is moved to a first position relative to the first side of the rack ; wherein the mounting mechanism is configured to mount a second chassis with a second chassis width to the rack . a mounting mechanisms configured to be detachably mounted to a first side of the rack and movable relative to the first side of the rack , a first connecting assembly configured to be detachably mounted to a second side of the rack ; a second connecting assembly connected to the mounting mechanism ; and characterized by : the mounting mechanism comprising a base plate detachably mounted on the rack and at least one sliding member connected to the second connecting assembly , the at least one sliding member being slidable relative to the base plate, so as to adjust a distance between the first connecting assembly and the second connecting assembly ; wherein the first connecting assembly and the second connecting assembly are configured to carry a first chassis with a first chassis width when the mounting mechanism is moved to a first position relative to the first side of the rack ; wherein the mounting mechanism is configured to mount a second chassis with a second chassis width to the rack . the mounting mechanism comprising a base plate detachably mounted on the rack and at least one sliding member connected to the second connecting assembly , the at least one sliding member being slidable relative to the base plate, so as to adjust a distance between the first connecting assembly and the second connecting assembly ; wherein the first connecting assembly and the second connecting assembly are configured to carry a first chassis with a first chassis width when the mounting mechanism is moved to a first position relative to the first side of the rack ; wherein the mounting mechanism is configured to mount a second chassis with a second chassis width to the rack .
A riding lawn mower comprising: a mower for mowing grass provided below the front part of a running vehicle body and in front of front wheels and comprising a cutting blade ; a collector provided at the rear part of the vehicle body and configured to accommodate mowed grass; and a cockpit provided on the front side of the vehicle body , wherein a safety guard surrounding the cockpit is provided between the cockpit and the collector , and wherein a net guard is provided in a space between left and right struts of the safety guard , characterized in that the net guard is pivotably provided in a posture that does not hinder the folding pivot of a head frame of the safety guard . a mower for mowing grass provided below the front part of a running vehicle body and in front of front wheels and comprising a cutting blade ; a collector provided at the rear part of the vehicle body and configured to accommodate mowed grass; and a cockpit provided on the front side of the vehicle body , wherein a safety guard surrounding the cockpit is provided between the cockpit and the collector , and wherein a net guard is provided in a space between left and right struts of the safety guard , characterized in that the net guard is pivotably provided in a posture that does not hinder the folding pivot of a head frame of the safety guard .
A phased array transmission device comprising: a plurality of transmission branches (11-1 to 11-m), each provided with a phase shifter (12-1) configured to apply a phase rotation to a baseband signal, a first DC offset corrector (13-1) configured to perform a DC offset correction by adding a first correction value to an output signal of the phase shifter, and a mixer (14-1) configured to subject an output signal of the first DC offset corrector to a frequency conversion to a high frequency band; and a correction controller configured to calculate a second correction value with which a carrier leak component included in an output signal of the mixer is minimized, for each of a plurality of candidates for a phase rotation amount that is set for the phase rotation, and configured to determine the first correction value on the basis of the second correction value. a plurality of transmission branches (11-1 to 11-m), each provided with a phase shifter (12-1) configured to apply a phase rotation to a baseband signal, a first DC offset corrector (13-1) configured to perform a DC offset correction by adding a first correction value to an output signal of the phase shifter, and a mixer (14-1) configured to subject an output signal of the first DC offset corrector to a frequency conversion to a high frequency band; and a correction controller configured to calculate a second correction value with which a carrier leak component included in an output signal of the mixer is minimized, for each of a plurality of candidates for a phase rotation amount that is set for the phase rotation, and configured to determine the first correction value on the basis of the second correction value.
A method implemented at a user equipment, UE, for frequency domain, FD, buffer decimation of a positioning reference signal, PRS, wherein the FD buffer decimation is a decimation of sub-carriers of an Orthogonal Frequency Division Multiplexing, OFDM, signal in a FD buffer by an integer factor, the method comprising: determining a present Carrier-to-Interference-and-Noise Ratio, CINR, associated with the PRS; determining whether the present CINR associated with the PRS is greater than an upper reference signal CINR threshold; and increasing the integer factor for the FD buffer decimation of the PRS, in response to determining that the present CINR associated with the PRS is greater than the upper reference signal CINR threshold. wherein the FD buffer decimation is a decimation of sub-carriers of an Orthogonal Frequency Division Multiplexing, OFDM, signal in a FD buffer by an integer factor, the method comprising: determining a present Carrier-to-Interference-and-Noise Ratio, CINR, associated with the PRS; determining whether the present CINR associated with the PRS is greater than an upper reference signal CINR threshold; and increasing the integer factor for the FD buffer decimation of the PRS, in response to determining that the present CINR associated with the PRS is greater than the upper reference signal CINR threshold. determining a present Carrier-to-Interference-and-Noise Ratio, CINR, associated with the PRS; determining whether the present CINR associated with the PRS is greater than an upper reference signal CINR threshold; and increasing the integer factor for the FD buffer decimation of the PRS, in response to determining that the present CINR associated with the PRS is greater than the upper reference signal CINR threshold.
- A method for geolocating a terminal of a wireless communication system , the terminal being adapted to exchange messages with an access network of said wireless communication system according to a first wireless communication protocol, said method includes: - receiving , by the terminal , a message transmitted according to a second wireless communication protocol by a transmitting device of interest , - obtaining an ambiguous item of identification information from the transmitting device of interest, characterised in that the method includes: - transmitting , by the terminal and to the access network , a message including the ambiguous item of identification information of the transmitting device of interest, - estimating , by the access network , an approximate geographical position of the terminal , - identifying , by the access network , in a table storing a list of transmitting device identifiers and the respective geographical positions of said transmitting devices, the transmitting device of interest as being the transmitting device in the table whose identifier corresponds to the ambiguous item of identification information and whose geographical position corresponds to the approximate geographical position of the terminal , - estimating , by the access network , the precise geographical position of said terminal based on the geographical position of the transmitting device of interest, the item of identification information is ambiguous in that it is likely to correspond to several transmitting devices whose geographical positions are stored in the table. - receiving , by the terminal , a message transmitted according to a second wireless communication protocol by a transmitting device of interest , - obtaining an ambiguous item of identification information from the transmitting device of interest, - transmitting , by the terminal and to the access network , a message including the ambiguous item of identification information of the transmitting device of interest, - estimating , by the access network , an approximate geographical position of the terminal , - identifying , by the access network , in a table storing a list of transmitting device identifiers and the respective geographical positions of said transmitting devices, the transmitting device of interest as being the transmitting device in the table whose identifier corresponds to the ambiguous item of identification information and whose geographical position corresponds to the approximate geographical position of the terminal , - estimating , by the access network , the precise geographical position of said terminal based on the geographical position of the transmitting device of interest,
Method for handling material in a pneumatic materials handling system, in which method material, such as waste material is input from an input aperture of an input point, such as from an input aperture of a refuse chute or of some other input point, and is handled with a shaping device , arranged in connection with the input point or in the proximity of it, to be more compact and is transferred onwards in a transfer piping, which shaping device is a rotary shaper having ring-like handling means with rotatable handling means and a stationary handling means , which ring-like handling means comprising an aperture arranged eccentrically with respect to an axis of rotation of the rotatable handling means, in which case the material to be handled is conducted into the rotary shaper and/or through it at least partly by means of gravity, characterized in that the method comprising: conducting the material to be handled into the rotary shaper and/or through the rotary shaper at least partly by means of suction and/or a pressure difference, and under effect of suction shaping the material to be handled with the handling means to fit into an output aperture of the rotary shaper, and conducting replacement air into connection with the rotary shaper, before the rotary shaper and/or into the rotary shaper and/or after the rotary shaper, with at least one replacement air coupling .
A system for determining a risk indicator for myopia, the system comprising: a wearable device configured to be attached to a body of a user, the wearable device comprising at least one distance sensor (54; 54a, 54b) configured to determine at least a first distance value indicative of a distance between the wearable device and an object located in a central vision zone of the user and a second distance value indicative of a distance between the wearable device and an object located in a peripheral vision zone of the user; a control unit configured to determine, based on the first distance value and the second distance value, a risk indicator for myopia, such that a higher disparity between the first distance value and the second distance value leads to a risk indicator indicating a higher risk of myopia. a wearable device configured to be attached to a body of a user, the wearable device comprising at least one distance sensor (54; 54a, 54b) configured to determine at least a first distance value indicative of a distance between the wearable device and an object located in a central vision zone of the user and a second distance value indicative of a distance between the wearable device and an object located in a peripheral vision zone of the user; a control unit configured to determine, based on the first distance value and the second distance value, a risk indicator for myopia, such that a higher disparity between the first distance value and the second distance value leads to a risk indicator indicating a higher risk of myopia.