mhurhangee/ep-ind-claims huggingface dataset:
A controller for a vertical-axis turbine, the turbine comprising a rotor comprising a plurality of aerofoil or hydrofoil blades arranged for rotation around an axis of the rotor, wherein:- the controller is configured, for each of at least two control modes, to control the pitch of each blade in dependence on a respective control mode algorithm, wherein the control mode algorithm is configured to control the pitch of each blade repeatedly during each rotation of the rotor in dependence on an azimuthal position of that blade and in dependence on at least one of fluid speed, fluid velocity, blade speed, blade velocity and tip speed ratio; the controller is configured to select a control mode from at least two stored control modes in dependence on at least one parameter other than fluid speed or blade speed, or in dependence on user input; and for at least some azimuthal positions and at least one fluid speed and/or tip speed ratio, blade pitch as a function of azimuthal position is different for a first of the control modes than for a second of the control modes. the turbine comprising a rotor comprising a plurality of aerofoil or hydrofoil blades arranged for rotation around an axis of the rotor, wherein:- the controller is configured, for each of at least two control modes, to control the pitch of each blade in dependence on a respective control mode algorithm, wherein the control mode algorithm is configured to control the pitch of each blade repeatedly during each rotation of the rotor in dependence on an azimuthal position of that blade and in dependence on at least one of fluid speed, fluid velocity, blade speed, blade velocity and tip speed ratio; the controller is configured to select a control mode from at least two stored control modes in dependence on at least one parameter other than fluid speed or blade speed, or in dependence on user input; and for at least some azimuthal positions and at least one fluid speed and/or tip speed ratio, blade pitch as a function of azimuthal position is different for a first of the control modes than for a second of the control modes.
A knitted component (130, 150) for an upper of an article of footwear comprising: a knit element (131, 151) including a course with a plurality of loops; and an inlaid strand (132, 152) formed of a second yarn, wherein a first portion of the course is formed with a first yarn, wherein a second portion of the course is formed with the second yarn, and wherein the inlaid strand (132, 152) is inlaid within the first portion of the course, wherein the first yarn and the second yarn impart different properties into separate areas of the knit element (131, 151), and the inlaid strand (132, 152) has a higher stretch resistance than the knit element (131, 151); wherein the knitted component, when being incorporated into the article of footwear, extends from a throat area upper to a lower area of the upper where the knit element (131, 151) joins a sole structure of the article of footwear, wherein the inlaid strand (132, 152) repeatedly passes through the knit element (131, 151) from the throat area to the lower area, and at least partially around a lace aperture, wherein courses of a knit structure of the knit element (131, 151) generally extend in a same direction as the inlaid strand. a knit element (131, 151) including a course with a plurality of loops; and an inlaid strand (132, 152) formed of a second yarn, wherein a first portion of the course is formed with a first yarn, wherein a second portion of the course is formed with the second yarn, and wherein the inlaid strand (132, 152) is inlaid within the first portion of the course, wherein the first yarn and the second yarn impart different properties into separate areas of the knit element (131, 151), and the inlaid strand (132, 152) has a higher stretch resistance than the knit element (131, 151); wherein the knitted component, when being incorporated into the article of footwear, extends from a throat area upper to a lower area of the upper where the knit element (131, 151) joins a sole structure of the article of footwear, wherein the inlaid strand (132, 152) repeatedly passes through the knit element (131, 151) from the throat area to the lower area, and at least partially around a lace aperture, wherein courses of a knit structure of the knit element (131, 151) generally extend in a same direction as the inlaid strand.
Method of determining the distance between two external loads (A1, A2) on an aircraft or missile when jettisoning one of the two external loads (A1, A2), characterised in that the chronological variation of the distance during the jettisoning procedure is determined using one or more magnetic field sensors (MS1, MS2); the point in time of the minimum miss distance is determined from the signal from the magnetic field sensor(s) (MS1, MS2); and the jettisoning procedure is recorded by means of a camera, wherein the value obtained with the magnetic field sensor(s) (MS1, MS2) for the point in time of the minimum miss distance is used for selecting the associated camera image, and the minimum miss distance is determined from the camera image obtained in this way.
A multilayered sheet comprising a release paper having a first and a second outer surface and an inorganic refractory layer adjacent to at least one surface of the release paper wherein the refractory layer has a dry areal weight of from 15 to 50 gsm (g/m 2) and a residual moisture content of no greater than 10 percent by weight, wherein the release paper (i) comprises a blend of cellulose and cotton fibers, (ii) is hydrophilic (iii) has a wet tensile strength of at least 89.29 kg/m (5 lb/in) in a first direction and at least 35.72 kg/m (2 lb/in) in a second direction, the second direction being transverse to the first direction, (iv) has a dry tensile strength of at least 178.58 kg/m (10 lb/in) in a first direction and at least 89.29 kg/m (5 lb/in) in a second direction, the second direction being transverse to the first direction, (v) has a surface smoothness on at least one outer surface of no greater than 150 Sheffield units, (vi) has a surface release value from at least one outer surface of from 4.46 kg/m (0.25 lb/in) to 26.79 kg/m (1.5 lb/in), (vii) has a thickness of from 127 μm (5 mil) to 304.8 μm (12 mil), (viii) has a density of from 0.9 to 1.1 g/cc, and (ix) has an air permeability no greater than 1200 Gurley Air Resistance (sec/100cc, 567 g cyl. (20 oz. cyl.)). (i) comprises a blend of cellulose and cotton fibers, (ii) is hydrophilic (iii) has a wet tensile strength of at least 89.29 kg/m (5 lb/in) in a first direction and at least 35.72 kg/m (2 lb/in) in a second direction, the second direction being transverse to the first direction, (iv) has a dry tensile strength of at least 178.58 kg/m (10 lb/in) in a first direction and at least 89.29 kg/m (5 lb/in) in a second direction, the second direction being transverse to the first direction, (v) has a surface smoothness on at least one outer surface of no greater than 150 Sheffield units, (vi) has a surface release value from at least one outer surface of from 4.46 kg/m (0.25 lb/in) to 26.79 kg/m (1.5 lb/in), (vii) has a thickness of from 127 μm (5 mil) to 304.8 μm (12 mil), (viii) has a density of from 0.9 to 1.1 g/cc, and (ix) has an air permeability no greater than 1200 Gurley Air Resistance (sec/100cc, 567 g cyl. (20 oz. cyl.)).
An object handling system comprising two substantially perpendicular sets of rails (22a, 22b) forming a grid above a plurality of stacks of containers, the spacing of the perpendicular rails defining a grid spacing wherein the containers have a footprint of a single grid spacing, wherein the stacks comprising containers of a differing heights, a first portion of containers having a first height, and a second portion of containers having a height greater than the first portion of containers, the handling system further comprising a plurality of first robotic load handling devices and at least one second robotic load handling device operating on the grid above the stacks of containers, the load handling devices (30, 50) comprising a body mounted on wheels, a first set of wheels being arranged to engage with at least two rails of the first set of rails, the second set of wheels being arranged to engage with at least two rails of the second set of rails, the first set of wheels adapted to be independently moveable and driveable with respect to the second set of wheels such that when in motion only one set of wheels is engaged with the grid at any one time thereby enabling movement of the load handling device (30, 50) along the rails to any point on the grid by driving only the set of wheels engaged with the rails, wherein the first load handling devices are adapted to lift only the first portion containers and characterised in that the plurality of first robotic load handling devices and the at least one second robotic load handling device occupy one grid spacing, and said at least one second robotic handling device is adapted to lift and move containers of the first portion of containers or the second portion of containers within the stacks.
A mounting structure comprising: a first substrate in which a penetrating hole is formed; a second substrate and a first heat dissipation element overlapped with both surfaces of the first substrate, respectively, so as to cover the penetrating hole; and a second heat dissipation element sandwiched and attached between the second substrate and the first heat dissipation element inside the penetrating hole, characterized in that the second heat dissipation element is a metal spring having elasticity in the substrate thickness direction. a first substrate in which a penetrating hole is formed; a second substrate and a first heat dissipation element overlapped with both surfaces of the first substrate, respectively, so as to cover the penetrating hole; and a second heat dissipation element sandwiched and attached between the second substrate and the first heat dissipation element inside the penetrating hole, characterized in that the second heat dissipation element is a metal spring having elasticity in the substrate thickness direction.
A rear light for motor vehicles comprising: at least a first cup-shaped body having the inner surface mirror finished so as to reflect the incident light; at least one main light source which is located close to the bottom of said first cup-shaped body, and is structured so as to emit light when electrically powered; and a front lenticular body which is made of transparent or semitransparent material, and is arranged so as to cover the mouth of said first cup-shaped body, so that the light emitted by said at least one main light source passes therethrough; the rear light being characterized by also comprising: - a tubular light-guiding sleeve made of photoconductive material and which is fitted over the outside of the cup-shaped body, so that the larger annular rim of the sleeve is substantially adjacent to and surrounds the outer peripheral rim of the cup-shaped body that defines the mouth of the cup-shaped body, and so that the smaller annular rim of the sleeve is substantially adjacent to the bottom of the first cup-shaped body, and - a first additional light source which is arranged facing the smaller annular rim of the sleeve, is structured so as to emit light when electricity powered and is oriented so that the light emitted by the additional light source penetrates within the sleeve through the rim of the latter and propagates to the larger annular rim; the larger annular rim of the sleeve being furthermore arranged so that the outer peripheral rim of the first cup-shaped body prevents the light leaving the larger annular rim of the sleeve from reaching the lenticular body. - a tubular light-guiding sleeve made of photoconductive material and which is fitted over the outside of the cup-shaped body, so that the larger annular rim of the sleeve is substantially adjacent to and surrounds the outer peripheral rim of the cup-shaped body that defines the mouth of the cup-shaped body, and so that the smaller annular rim of the sleeve is substantially adjacent to the bottom of the first cup-shaped body, and - a first additional light source which is arranged facing the smaller annular rim of the sleeve, is structured so as to emit light when electricity powered and is oriented so that the light emitted by the additional light source penetrates within the sleeve through the rim of the latter and propagates to the larger annular rim;
Device for rinsing and sterilising at least one tube enabling the milk of a breast pump to pass therethrough, comprising a container and a stopper making it possible to close it, characterised in that said container has means for connecting one of the ends of the or of at least one of said tubes, placed on a side wall of said container, at an intermediate level between the bottom wall and the upper edge of said container, in such a way that, when said container contains a water-containing liquid and that latter is brought to boiling, the vapour produced moves at least part of the volume of the liquid into said at least one tube allowing its rinsing, then, when the level of said liquid has reached said means for connecting, flows into said at least one tube allowing its sterilisation.
Cutter system for an electric shaver and/or trimmer, comprising a pair of cooperating cutting elements (4, 5) with two rows of comb-like cutting teeth (6, 7) at opposite edges thereof and at least one field of cutting perforations between said rows of comb-like cutting teeth (6, 7), wherein said cutting elements (4, 5) are movably supported relative to each other by a support structure, wherein the cutting perforations are arranged in two separate elongated fields (70, 90) of perforations which are separated from each other by an elongated unperforated center section of an outer one of said cutting elements defining a skin contact surface, and which include each at least two rows of perforations extending along the rows of comb-like cutting teeth (6, 7) wherein said separate elongated fields (70, 90) of perforations are separated from said rows of comb-like teeth (6, 7) by elongated, unperforated side sections (61, 62) of said outer cutting element characterized in that said support structure includes a pair of support ribs supporting an inner one of said cutting elements under said unperforated side sections (61, 62) along outer boundaries of said fields (70, 90) of perforations and/or wherein said inner cutting element extends unsupported under said unperforated center section between said fields (70, 90) of said perforations.
A method for data transmission, applied to a terminal device, comprising: receiving configuration information sent by a network device; determining, according to the configuration information, to use a first physical resource for transmitting a target transport block, TB, wherein a duration of the first physical resource is not greater than a first time-domain resource length, the first time-domain resource length is related to a subcarrier spacing presently used by the terminal device for transmitting a TB, and the first time-domain resource length is a maximum number of time-domain symbols occupied by transmission of the TB; wherein the configuration information is configured to indicate a starting time-domain symbol position in a first time unit in at least two time units and an ending time-domain symbol position in a last time unit in the at least two time units for transmission of the target TB; or the configuration information is configured to indicate a starting time-domain symbol position in a first time unit in at least two time units and the duration of the first physical resource for transmission of the target TB; and wherein the first physical resource comprises: all available time-domain symbols between the starting symbol position and the ending symbol position, wherein the available time-domain symbols are time-domain symbols that are not occupied by a high-priority signal or channel. receiving configuration information sent by a network device; determining, according to the configuration information, to use a first physical resource for transmitting a target transport block, TB, wherein a duration of the first physical resource is not greater than a first time-domain resource length, the first time-domain resource length is related to a subcarrier spacing presently used by the terminal device for transmitting a TB, and the first time-domain resource length is a maximum number of time-domain symbols occupied by transmission of the TB; wherein the configuration information is configured to indicate a starting time-domain symbol position in a first time unit in at least two time units and an ending time-domain symbol position in a last time unit in the at least two time units for transmission of the target TB; or the configuration information is configured to indicate a starting time-domain symbol position in a first time unit in at least two time units and the duration of the first physical resource for transmission of the target TB; and wherein the first physical resource comprises: all available time-domain symbols between the starting symbol position and the ending symbol position, wherein the available time-domain symbols are time-domain symbols that are not occupied by a high-priority signal or channel.
An electrolysis apparatus for producing ammonia, comprising - a cathode; - an anode; - an electrolyte; - a current source; - a supply for nitrogen; and - a supply for HCl and/or HBr and/or HI, wherein a material for the supply for HCl and/or HBr and/or HI is stable against any reaction with HCl and/or HBr and/or HI, and wherein the anode comprises at least 10 wt.% of a metal selected from the group consisting of Li, Mg, Ca, Sr, Ba, Zn and Al, based on the total weight of the anode. - a cathode; - an anode; - an electrolyte; - a current source; - a supply for nitrogen; and - a supply for HCl and/or HBr and/or HI,
A toilet system comprising a cistern body comprising a cistern chamber: the cistern chamber comprising a water reservoir and a water pump; the water reservoir being in fluid communication with the water pump, the water pump being arranged to be operable to pump water under pressure out of a water outlet from the cistern body; the toilet system further comprising a toilet pan body having a water trap; a lid for the toilet pan body and a sealing arrangement (222, 58, 224) for providing a sealed chamber below the lid and above a bowl of the toilet pan when the lid is positioned in a closed orientation thereof; and an air pump for providing pressure to the sealed chamber on top of the water trap when the lid is closed for pushing down on the water trap to evacuate the contents of the toilet pan body, the air pump being located in the cistern chamber; characterised in that the toilet pan body includes a manifold, the manifold having an air inlet, a water inlet and at least one air outlet and at least one water outlet (92, 98, 100), the manifold having an end connector adapted to connect both said air outlet and said water outlet to a single delivery aperture in the toilet pan body.
An IM-5 molecular sieve, characterized in that the IM-5 molecular sieve is in a fibrous form, having an average diameter of 5-30 nm, preferably 10-25 nm; and an average aspect ratio of 15-100, preferably 20-50.
A conveying device (1, 1A, 1B, 1C, 1D, 1E), comprising: a first magnetic body (10, 10A, 10B) which is provided on a side of a conveyance object; two or more magnetic circuits (25, 25a, 25b, 25c, 25d) which each include a core (22, 22a, 22b, 22c, 22d) made of a second magnetic body and a winding (21, 21a, 21b, 21c, 22d) wound on an outer periphery of the core (22, 22a, 22b, 22c, 22d); a drive circuit configured to supply a current to the winding (21, 21a, 21b, 21c, 22d) of the magnetic circuit (25, 25a, 25b, 25c, 25d); a calculation unit configured to control a value of the current to be supplied from the drive circuit to the winding (21, 21a, 21b, 21c, 22d); and a conveyance object detection unit configured to detect a position or speed of the first magnetic body (10, 10A, 10B), characterized in that the calculation unit is configured to make the values of currents to be supplied to the respective windings (21, 21a, 21b, 21c, 22d) adjacent to each other along a traveling direction of the conveyance object, different from each other in positive and negative, to make the current to be supplied to the winding (21, 21a, 21b, 21c, 22d) vary based on information on the position or speed of the first magnetic body (10, 10A, 10B) which is detected by the conveyance object detection unit, and to make, when a pitch of two or more of the cores (22, 22a, 22b, 22c, 22d) is set to a value Pc, a current value in a 1/2 Pc section larger than a current value directly after the 1/2 Pc section. a first magnetic body (10, 10A, 10B) which is provided on a side of a conveyance object; two or more magnetic circuits (25, 25a, 25b, 25c, 25d) which each include a core (22, 22a, 22b, 22c, 22d) made of a second magnetic body and a winding (21, 21a, 21b, 21c, 22d) wound on an outer periphery of the core (22, 22a, 22b, 22c, 22d); a drive circuit configured to supply a current to the winding (21, 21a, 21b, 21c, 22d) of the magnetic circuit (25, 25a, 25b, 25c, 25d); a calculation unit configured to control a value of the current to be supplied from the drive circuit to the winding (21, 21a, 21b, 21c, 22d); and a conveyance object detection unit configured to detect a position or speed of the first magnetic body (10, 10A, 10B), characterized in that the calculation unit is configured to make the values of currents to be supplied to the respective windings (21, 21a, 21b, 21c, 22d) adjacent to each other along a traveling direction of the conveyance object, different from each other in positive and negative, to make the current to be supplied to the winding (21, 21a, 21b, 21c, 22d) vary based on information on the position or speed of the first magnetic body (10, 10A, 10B) which is detected by the conveyance object detection unit, and to make, when a pitch of two or more of the cores (22, 22a, 22b, 22c, 22d) is set to a value Pc, a current value in a 1/2 Pc section larger than a current value directly after the 1/2 Pc section.
A method for treating textile in a biopolishing process, with an isolated polypeptide having endoglucanase activity selected from the group consisting of: (a) a polypeptide having at least 80% sequence identity over the full length of the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 80% sequence identity over the full length of the mature polypeptide-coding sequence of SEQ ID NO: 1; and (c) a fragment of the polypeptide of (a) or (b) that has endoglucanase activity, wherein the fragment is of no less than 220 amino acids and comprises the carbohydrate binding domain of said polypeptide of (a) or (b); wherein the method is conducted at a temperature in the range of 15 - 65°C; wherein the method further comprises the step of contacting the textile with a dyestuff, wherein the dyestuff and the polypeptide having endoglucanase activity are added sequentially or simultaneously into the same bath containing textile and the textile is incubated for 10 minutes to 1 hour, preferably 20 - 50 minutes, more preferred 30 - 40 minutes after adding the dyestuff, followed by addition of a salt. (a) a polypeptide having at least 80% sequence identity over the full length of the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 80% sequence identity over the full length of the mature polypeptide-coding sequence of SEQ ID NO: 1; and (c) a fragment of the polypeptide of (a) or (b) that has endoglucanase activity, wherein the fragment is of no less than 220 amino acids and comprises the carbohydrate binding domain of said polypeptide of (a) or (b);