mhurhangee/ep-ind-claims huggingface dataset:
An overshoe comprising: a one piece molded member defined by an upper member having a front section spaced apart from a rear section by opposing side sections (36, 38), said side sections (36, 38) having a plurality of ridges and grooves, and a sole portion having a toe section positioned beneath said front section and spaced apart from a heel section positioned beneath said rear section; a shank having a plurality of ridges and grooves formed integral to said member and positioned between said toe section and said heel section, said shank and said side sections (36, 38) forming a continuous U-shaped section; characterised in that, said U-shaped section is corrugated and in that said corrugated section has ridges and grooves of equal shape that are constructed and arranged to allow the stretching of said member between said front section and said rear section and said toe section and said heel section; and, in that said ridges and grooves are constructed and arranged to stretch substantially the same across said shank and said opposing side sections (36, 38), and diminish in stretch along each said side section (36, 38) extending from a rear edge of said shank towards said heel section, and diminish in stretch along each said side section (36, 38) extending from a front edge of said shank towards said toe section. a one piece molded member defined by an upper member having a front section spaced apart from a rear section by opposing side sections (36, 38), said side sections (36, 38) having a plurality of ridges and grooves, and a sole portion having a toe section positioned beneath said front section and spaced apart from a heel section positioned beneath said rear section; a shank having a plurality of ridges and grooves formed integral to said member and positioned between said toe section and said heel section, said shank and said side sections (36, 38) forming a continuous U-shaped section; characterised in that, said U-shaped section is corrugated and in that said corrugated section has ridges and grooves of equal shape that are constructed and arranged to allow the stretching of said member between said front section and said rear section and said toe section and said heel section; and, in that said ridges and grooves are constructed and arranged to stretch substantially the same across said shank and said opposing side sections (36, 38), and diminish in stretch along each said side section (36, 38) extending from a rear edge of said shank towards said heel section, and diminish in stretch along each said side section (36, 38) extending from a front edge of said shank towards said toe section.
A rotating cutting tool with a main body, to which at least one segment is exchangeably fastened, the main body and the segment having fitting elements with mutually contacting faces (4, 5), characterized in that the exchangeable fastening takes place by a clamping piece, which is dovetailed on two sides and is configured such that it tapers in wedge form in an axial direction A, the first dovetail-shaped part of the clamping piece engaging in a corresponding recess of the main body and the second dovetail-shaped part of the clamping piece engaging in a corresponding recess of the segment, characterized in that the clamping piece is passed through in the axial direction A by a screw, which can be screwed to the main body or the segment.
A method for controlling performance of gearbox of a gas turbine engine, comprising: establishing a gear characteristic of a plurality of double helical gears (70,72,74) each disposed about a respective axis in a gearbox; and controlling performance of the plurality of double helical gears (70,72,74) by selecting a circumferential offset distance between a first plurality of gear teeth spaced apart from a second plurality of gear teeth on each of the plurality of double helical gears (70,72,74) in response to the established gear characteristic; characterized in that the gear characteristic is a harmonic level. establishing a gear characteristic of a plurality of double helical gears (70,72,74) each disposed about a respective axis in a gearbox; and controlling performance of the plurality of double helical gears (70,72,74) by selecting a circumferential offset distance between a first plurality of gear teeth spaced apart from a second plurality of gear teeth on each of the plurality of double helical gears (70,72,74) in response to the established gear characteristic; characterized in that the gear characteristic is a harmonic level.
A composition for stabilizing a quantum dot or a quantum dot conjugate, comprising: (a) a substituted amine other than an amino acid or an alkyl-substituted alkyl amine; or (b) an amine and a protein and/or protein hydrolysate; the composition further comprising: (c) a borate buffer; (d) a preservative; and (e) a surfactant; wherein the composition has a pH greater than or equal to 7, and wherein at least one of the amine or the protein and/or protein hydrolysate is present at a concentration effective to stabilize and/or increase fluorescence intensity of a quantum dot or a quantum dot conjugate stored in the composition relative to fluorescence intensity of the a quantum dot or the quantum dot conjugate stored in a composition devoid of (a) a substituted amine other than an amino acid or an alkyl-substituted alkyl amine or (b) an amine and a protein and/or protein hydrolysate. (a) a substituted amine other than an amino acid or an alkyl-substituted alkyl amine; or (b) an amine and a protein and/or protein hydrolysate; the composition further comprising: (c) a borate buffer; (d) a preservative; and (e) a surfactant;
An electrode coating comprising a polymerized product of: from 5% to 30% by weight of at least one crosslinkable monomer; from 20% to 85% by weight of at least one hydrophobic monomer; and at least one dielectric constant enhancing agent selected from the group consisting of: a dielectric enhancing monomer in an amount from 10% to 60% by weight, said dielectric enhancing monomer comprising a polymerizable moiety and a dipole moiety, ferroelectric particulates in an amount from 5% to 50% by weight, an electroactive polymer in an amount from 2% to 20% by weight, said electroactive polymer having a shape controllable by an applied voltage; and a combination thereof, wherein the coating has a dielectric constant of at least 1.5 and has a breakdown voltage of 1,800 volts per micron. from 5% to 30% by weight of at least one crosslinkable monomer; from 20% to 85% by weight of at least one hydrophobic monomer; and at least one dielectric constant enhancing agent selected from the group consisting of: a dielectric enhancing monomer in an amount from 10% to 60% by weight, said dielectric enhancing monomer comprising a polymerizable moiety and a dipole moiety, ferroelectric particulates in an amount from 5% to 50% by weight, an electroactive polymer in an amount from 2% to 20% by weight, said electroactive polymer having a shape controllable by an applied voltage; and a combination thereof, wherein the coating has a dielectric constant of at least 1.5 and has a breakdown voltage of 1,800 volts per micron. a dielectric enhancing monomer in an amount from 10% to 60% by weight, said dielectric enhancing monomer comprising a polymerizable moiety and a dipole moiety, ferroelectric particulates in an amount from 5% to 50% by weight, an electroactive polymer in an amount from 2% to 20% by weight, said electroactive polymer having a shape controllable by an applied voltage; and a combination thereof, wherein the coating has a dielectric constant of at least 1.5 and has a breakdown voltage of 1,800 volts per micron.
A method of manufacturing a cross shaft universal joint (3, 3a-3i) including a pair of yokes (12, 12a, 12b), a cross shaft (13, 13a, 13b), four radial bearings and four thrust pieces (23, 23a, 25, 25a-25e), wherein each of the pair of yokes includes a base part for coupling and fixing an end portion of a rotary shaft (9, 11), a pair of coupling arm parts extending axially from two diametrically opposite positions of the rotary shaft at one axial end edge of the base part, and a pair of circular holes formed at tip portions of the pair of coupling arm parts to be concentric with each other, wherein the cross shaft (13, 13a, 13b) is configured by radially fixing four shaft parts on an outer periphery of a coupling base part thereof, wherein each of the radial bearings is arranged between an inner periphery of a cylindrical bottomed bearing cup (17, 17a-17c) fitted and fixed in a corresponding circular hole and an outer periphery of a corresponding shaft part, and is configured to support a radial load applied between the corresponding bearing cup and the corresponding shaft part, and wherein each of the thrust pieces (23, 23a, 25, 25a-25e) is arranged between a bottom inner surface of a corresponding bearing cup (17, 17a, 17b) and a corresponding shaft part, the method being characterized by: when assembling the cross shaft universal joint, heating at least one of the thrust pieces (25, 25a-25e) to soften and deform said at least one of the thrust pieces to adjust a size of the thrust piece in an axial direction of a corresponding shaft part and each of the thrust pieces is made of a synthetic resin. when assembling the cross shaft universal joint, heating at least one of the thrust pieces (25, 25a-25e) to soften and deform said at least one of the thrust pieces to adjust a size of the thrust piece in an axial direction of a corresponding shaft part and each of the thrust pieces is made of a synthetic resin.
A terminal comprising: a receiving section configured to monitor, in a first Bandwidth part, BWP, a Physical Downlink Control Channel, PDCCH; characterized by further comprising: a control section configured to perform a control operation by using, as a PDCCH monitoring periodicity for the first BWP, a PDCCH monitoring periodicity for a second BWP, whose numerology is different than the first BWP, multiplied by a power of 2.
Mobile construction machine, in particular excavator, having a pivoting element pivotable around a horizontal rotational axis by an actuator, in particular an excavator blade, and an additional device, in particular an additional axle which is couplable to the pivoting element by lifting and lowering of the pivoting element in such a way that the pivoting element engages in a receptacle on the additional device in a form-fit manner, characterized in that the additional device and/or the pivoting element comprise a guiding device (10, 14), through which the additional device is guided on another contour on the pivoting element when lowering the pivoting element than during the lifting.
A method of establishing wireless communication between a first device and a second device comprising: listening at the first device for radio frequency ("RF") activity on a receiver utilizing a first antenna; transmitting from the first device a first command using the first antenna when no RF activity is detected; switching said receiver "on" after said transmission to listen for a reply from the second device; turning said receiver "off" when said receiver does not receive a reply within a first predetermined timespan; switching said receiver "on" again to listen for said reply; if no reply is received before the end of a timeout period, transmitting a second command on a second antenna and/or using a different transmission power level; switching the receiver "on" to listen for a reply from the second device to the second command; and switching said receiver "off" when no reply is received utilizing said second antenna or said different transmission power level. listening at the first device for radio frequency ("RF") activity on a receiver utilizing a first antenna; transmitting from the first device a first command using the first antenna when no RF activity is detected; switching said receiver "on" after said transmission to listen for a reply from the second device; turning said receiver "off" when said receiver does not receive a reply within a first predetermined timespan; switching said receiver "on" again to listen for said reply; if no reply is received before the end of a timeout period, transmitting a second command on a second antenna and/or using a different transmission power level; switching the receiver "on" to listen for a reply from the second device to the second command; and switching said receiver "off" when no reply is received utilizing said second antenna or said different transmission power level.
A deposition apparatus (600, 602) comprising: an infeed chamber; a combined preheat/cooldown chamber; a deposition chamber; and wherein: the combined preheat/cooldown chamber contains a buffer system for buffering workpieces respectively passing to or from the deposition chamber. an infeed chamber; a combined preheat/cooldown chamber; a deposition chamber; and the combined preheat/cooldown chamber contains a buffer system for buffering workpieces respectively passing to or from the deposition chamber.
A fabrication method for a flexible, free-standing ultrathin or thin protein membrane having a thickness of 10 nm to 10 μm and containing channels, said method comprising the following steps: a first step of mixing metal hydroxide nanostrands and protein to obtain composite nanofibers made of protein and metal hydroxide nanostrands, the metal being selected from Cd, Cu, and Zn; a second step of filtering the obtained dispersion of composite nanofibers on a filter; and being characterized by: a third step of cross-linking proteins contained in the composite nanofibers by bifunctional cross-linkers; a fourth step of peeling off the composite nanofibers obtained in the step from the filter and a fifth step of removing said metal hydroxide nanostrands, the metal being selected from Cd, Cu, and Zn, by immersion in aqueous mineral acid to produce a membrane containing channels. a first step of mixing metal hydroxide nanostrands and protein to obtain composite nanofibers made of protein and metal hydroxide nanostrands, the metal being selected from Cd, Cu, and Zn; a second step of filtering the obtained dispersion of composite nanofibers on a filter; a third step of cross-linking proteins contained in the composite nanofibers by bifunctional cross-linkers; a fourth step of peeling off the composite nanofibers obtained in the step from the filter and a fifth step of removing said metal hydroxide nanostrands, the metal being selected from Cd, Cu, and Zn, by immersion in aqueous mineral acid to produce a membrane containing channels.
A method of transmitting data from a transmitting entity to a receiving entity in a wireless multiple-input multiple-output, MIMO, communication system, comprising: processing (312, 314) data to obtain a plurality of streams of data symbols for transmission on a plurality of transmission channels in a MIMO channel between the transmitting entity and the receiving entity; performing spatial spreading on the plurality of streams of data symbols with a plurality of steering matrices to obtain a plurality of streams of spread symbols, wherein the spatial spreading comprises transmission of the data symbol on multiple eigenmodes or spatial channels of the MIMO channel simultaneously with the steering vector; performing spatial processing on the plurality of streams of spread symbols for either full channel state information, CSI, transmission on multiple eigenmodes of the MIMO channel or partial-CSI transmission on spatial channels of the MIMO channel to obtain a plurality of streams of transmit symbols for transmission from a plurality of transmit antennas at the transmitting entity. processing (312, 314) data to obtain a plurality of streams of data symbols for transmission on a plurality of transmission channels in a MIMO channel between the transmitting entity and the receiving entity; performing spatial spreading on the plurality of streams of data symbols with a plurality of steering matrices to obtain a plurality of streams of spread symbols, wherein the spatial spreading comprises transmission of the data symbol on multiple eigenmodes or spatial channels of the MIMO channel simultaneously with the steering vector; performing spatial processing on the plurality of streams of spread symbols for either full channel state information, CSI, transmission on multiple eigenmodes of the MIMO channel or partial-CSI transmission on spatial channels of the MIMO channel to obtain a plurality of streams of transmit symbols for transmission from a plurality of transmit antennas at the transmitting entity.
A smart seeder comprising: a transfer plate having a seed sorting groove formed at one end thereof, a portion or the entirety of one kind of seeds being inserted into the seed sorting groove, and seeds being supplied onto an upper surface of the transfer plate; a vibration generating unit configured to generate vibrations on the transfer plate, to spread the supplied seeds such that the seeds do not overlap each other, and at the same time, to move the seeds toward said one end thereof; a rotating drum arranged to be adjacent to said one end of the transfer plate to be rotated, and having a seed inserting groove formed on an outer peripheral surface thereof, the seeds inserted into the seed sorting groove of the transfer plate being moved and inserted into the seed inserting groove according to rotation; and a guide unit configured to guide, to a cell of a tray pot, the seeds which are inserted into the seed inserting groove of the rotating drum according to the rotation of the rotating drum and freely fall; characterized in that a seed accommodating groove is formed at said one end of the transfer plate, and the seed sorting groove is formed at one end of a bottom surface of the seed accommodating groove. a transfer plate having a seed sorting groove formed at one end thereof, a portion or the entirety of one kind of seeds being inserted into the seed sorting groove, and seeds being supplied onto an upper surface of the transfer plate; a vibration generating unit configured to generate vibrations on the transfer plate, to spread the supplied seeds such that the seeds do not overlap each other, and at the same time, to move the seeds toward said one end thereof; a rotating drum arranged to be adjacent to said one end of the transfer plate to be rotated, and having a seed inserting groove formed on an outer peripheral surface thereof, the seeds inserted into the seed sorting groove of the transfer plate being moved and inserted into the seed inserting groove according to rotation; and a guide unit configured to guide, to a cell of a tray pot, the seeds which are inserted into the seed inserting groove of the rotating drum according to the rotation of the rotating drum and freely fall; characterized in that a seed accommodating groove is formed at said one end of the transfer plate, and the seed sorting groove is formed at one end of a bottom surface of the seed accommodating groove.
A communication method, comprising: determining, by a session management network element, first session identifier information for a terminal device, wherein the first session identifier information indicates a first session channel of a first user plane function network element; obtaining, by the session management network element, an address of the terminal device, wherein the address of the terminal device is a media access control, MAC, address; and sending, by the session management network element, a first correspondence between the first session identifier information and the address of the terminal device to the first user plane function network element; wherein the obtaining, by the session management network element, the address of the terminal device comprises: obtaining, by the session management network element, the address of the terminal device from a second user plane function network element, wherein the terminal device is handed over from the second user plane function network element to the first user plane function network element. determining, by a session management network element, first session identifier information for a terminal device, wherein the first session identifier information indicates a first session channel of a first user plane function network element; obtaining, by the session management network element, an address of the terminal device, wherein the address of the terminal device is a media access control, MAC, address; and sending, by the session management network element, a first correspondence between the first session identifier information and the address of the terminal device to the first user plane function network element; wherein the obtaining, by the session management network element, the address of the terminal device comprises: obtaining, by the session management network element, the address of the terminal device from a second user plane function network element, wherein the terminal device is handed over from the second user plane function network element to the first user plane function network element.
A subsea plough for providing a subsea channel, comprising: a front end which faces a direction of towing and a rear end; a plough share member extending substantially perpendicular to a plough chassis and comprising a heel that extends in a plane substantially parallel to and spaced apart from a plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface, wherein the plane of the chassis comprises a plane comprising a guide pivot axis; and a pivotable guide member at the front end comprising an open mouth at a first end region of the guide member and a support surface for guiding bending of a flexible elongate element; wherein the guide member is pivotable from the chassis about the guide pivot axis, the guide pivot axis being at a further end region of the guide member, characterised in that the guide member is pivotable into a plurality of orientations between a first extreme position, in which the guide member is inclined downwards below the plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface, and a second extreme position, in which the guide member is inclined upwards above the plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface; wherein in the first extreme position the guide member is inclined downwards more than 10° below the plane of the chassis and in the second extreme position the guide member is inclined upwards more than 20° above the plane of the chassis. a front end which faces a direction of towing and a rear end; a plough share member extending substantially perpendicular to a plough chassis and comprising a heel that extends in a plane substantially parallel to and spaced apart from a plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface, wherein the plane of the chassis comprises a plane comprising a guide pivot axis; and a pivotable guide member at the front end comprising an open mouth at a first end region of the guide member and a support surface for guiding bending of a flexible elongate element; wherein the guide member is pivotable from the chassis about the guide pivot axis, the guide pivot axis being at a further end region of the guide member, characterised in that the guide member is pivotable into a plurality of orientations between a first extreme position, in which the guide member is inclined downwards below the plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface, and a second extreme position, in which the guide member is inclined upwards above the plane of the chassis that corresponds to a horizontal plane when the plough is stood level on a horizontal surface; wherein in the first extreme position the guide member is inclined downwards more than 10° below the plane of the chassis and in the second extreme position the guide member is inclined upwards more than 20° above the plane of the chassis.