mhurhangee/ep-ind-claims huggingface dataset:
A seat arrangement for an electrically powered wheelchair, wherein the seat arrangement comprises: a mounting arrangement for mounting the seat arrangement to a chassis of an electrically powered wheelchair, a seat frame, a backrest frame, a backrest actuator (7; 7'), wherein the backrest frame is pivotally coupled to the seat frame, forming a first pivot axis, and wherein the backrest frame is pivotally coupled to the backrest actuator (7; 7'), forming a translatable second pivot axis, a retaining mechanism (11; 11') arranged to retain the backrest frame in an upright position while the backrest frame is subjected to a forward-tilting force smaller than a threshold value, characterized in that the retaining mechanism (11; 11') is arranged to allow movement of the backrest frame to a forward-tilted position when the backrest frame is subjected to a forward-tilting force equal to or greater than the threshold value, and a locking mechanism (13; 13') arranged to lock the backrest frame in the forward-tilted position. a mounting arrangement for mounting the seat arrangement to a chassis of an electrically powered wheelchair, a seat frame, a backrest frame, a backrest actuator (7; 7'), wherein the backrest frame is pivotally coupled to the seat frame, forming a first pivot axis, and wherein the backrest frame is pivotally coupled to the backrest actuator (7; 7'), forming a translatable second pivot axis, a retaining mechanism (11; 11') arranged to retain the backrest frame in an upright position while the backrest frame is subjected to a forward-tilting force smaller than a threshold value, characterized in that the retaining mechanism (11; 11') is arranged to allow movement of the backrest frame to a forward-tilted position when the backrest frame is subjected to a forward-tilting force equal to or greater than the threshold value, and a locking mechanism (13; 13') arranged to lock the backrest frame in the forward-tilted position.
A process for copolymerizing ethylenically unsaturated aliphatic olefin with ethylenically unsaturated monomer containing an electron withdrawing group into a copolymer comprising: a) free radically copolymerizing in an aqueous medium containing at least 20 wt.% water, based on the medium and any dispersed phase therein, at least one ethylenically unsaturated aliphatic olefin monomer with 4 to 30 carbon atoms of the formula CH 2 =CR'R" where R' is a linear or branched C 1 to C 28 alkyl that may be linear, branched or cyclic and R" is hydrogen or a branched alkyl as set forth for R' with the proviso that R' and R" together have no more than 28 carbon atoms with at least one monomer containing an electron withdrawing group utilizing a Lewis acid or a solid Brönsted acid to increase the incorporation rate of said olefin into said copolymer. a) free radically copolymerizing in an aqueous medium containing at least 20 wt.% water, based on the medium and any dispersed phase therein, at least one ethylenically unsaturated aliphatic olefin monomer with 4 to 30 carbon atoms of the formula CH 2 =CR'R" where R' is a linear or branched C 1 to C 28 alkyl that may be linear, branched or cyclic and R" is hydrogen or a branched alkyl as set forth for R' with the proviso that R' and R" together have no more than 28 carbon atoms with at least one monomer containing an electron withdrawing group utilizing a Lewis acid or a solid Brönsted acid to increase the incorporation rate of said olefin into said copolymer.
An emulsion composition to coat a substrate comprising: a. a barrier-forming material that is an asphalt, b. water; c. an organometallic compound, and d. at least one thickener, wherein, upon application of the composition to a substrate, a coating is formed and the coating is substantially dry after the lapse of about 60 seconds to about 1800 seconds from the initial application. a. a barrier-forming material that is an asphalt, b. water; c. an organometallic compound, and d. at least one thickener,
A solid oxide fuel cell comprising: a solid electrolyte layer; an oxygen electrode layer provided on one surface of the solid electrolyte layer; and a fuel electrode layer provided on the other surface of the solid electrolyte layer, wherein the oxygen electrode layer is made of a material containing iron or manganese, characterized in that the solid electrolyte layer comprises a yttria stabilized zirconia solid electrolyte material that is doped with a lanthanoid oxide, the solid electrolyte material is doped with 8 to 15 mol% of the yttria and 1 to 5 mol% of the lanthanoid oxide, relative to the total molar amount of the zirconia, the yttria, and the lanthanoid oxide in the solid electrolyte material, and the solid electrolyte material contains alumina. a solid electrolyte layer; an oxygen electrode layer provided on one surface of the solid electrolyte layer; and a fuel electrode layer provided on the other surface of the solid electrolyte layer, wherein the oxygen electrode layer is made of a material containing iron or manganese, characterized in that the solid electrolyte layer comprises a yttria stabilized zirconia solid electrolyte material that is doped with a lanthanoid oxide, the solid electrolyte material is doped with 8 to 15 mol% of the yttria and 1 to 5 mol% of the lanthanoid oxide, relative to the total molar amount of the zirconia, the yttria, and the lanthanoid oxide in the solid electrolyte material, and the solid electrolyte material contains alumina.
A machine tool comprising: a tool holder mounted to a platform, and a plurality of legs extending from respective positions on the platform for connecting the platform to respective positions on a workpiece, each leg having a first joint system at its platform end allowing each leg to pivot relative to the platform, each first joint system having an actuator arrangement having a first operating mode in which the actuator arrangement is configured to apply a load to move the respective leg, and a second operating mode in which the actuator arrangement is configured to allow free movement of the respective leg.
A method comprising: sending, by a source access and mobility management function, AMF, to a target AMF, a first message indicating a handover of a wireless device, the first message comprising one or more first parameters of a source session management function, SMF; receiving, by the source AMF from the target AMF, a first release request message requesting a release of at least one PDU session; sending, by the source AMF to the target AMF, a first response message indicating completion of the release of the at least one PDU session; sending, by the source AMF to the source SMF, a second release request message requesting the release of the at least one PDU session; and receiving, by the source AMF from the source SMF, a second response message indicating completion of the release of the at least one PDU session. sending, by a source access and mobility management function, AMF, to a target AMF, a first message indicating a handover of a wireless device, the first message comprising one or more first parameters of a source session management function, SMF; receiving, by the source AMF from the target AMF, a first release request message requesting a release of at least one PDU session; sending, by the source AMF to the target AMF, a first response message indicating completion of the release of the at least one PDU session; sending, by the source AMF to the source SMF, a second release request message requesting the release of the at least one PDU session; and receiving, by the source AMF from the source SMF, a second response message indicating completion of the release of the at least one PDU session.
A dynamic balancer, comprising an outer housing; a spindle assembly rotatably mounted to said outer housing and having a spindle shaft; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and connected to said spindle shaft; a chucking assembly receiving a locking member, said locking member adapted to capture a tire therebetween, said chucking assembly and said locking member captured in said spindle assembly and rotated by said frameless motor assembly; and said spindle shaft extending through said frameless motor assembly, one end of said spindle shaft being adapted to axially move said chucking assembly to engage and disengage said locking member in said spindle assembly; and an encoder assembly comprising: an encoder ring connected to said rotor; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring. an outer housing; a spindle assembly rotatably mounted to said outer housing and having a spindle shaft; a frameless motor assembly comprising a stator coupled to said outer housing and a rotor rotatably received within said stator and connected to said spindle shaft; a chucking assembly receiving a locking member, said locking member adapted to capture a tire therebetween, said chucking assembly and said locking member captured in said spindle assembly and rotated by said frameless motor assembly; and said spindle shaft extending through said frameless motor assembly, one end of said spindle shaft being adapted to axially move said chucking assembly to engage and disengage said locking member in said spindle assembly; and an encoder assembly comprising: an encoder ring connected to said rotor; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring. an encoder ring connected to said rotor; and a read head adapted to be held in a fixed position to detect a rotational position of said encoder ring.
Method for the manufacture of mineral fibres, in which method - mineral melt is led to a first rotating fiberising rotor in a fiberising apparatus comprising at least two fiberising rotors (1, 21, 21'), - mineral melt is thrown from the mantle surface of the first rotating rotor to the mantle surface of a second rotating rotor, and from there successively to the mantle surfaces of possible following rotors, - mineral melt is formed to mineral fibres at the active peripheries of the rotating fiberising rotors (1, 21, 21'), - the formed mineral fibres are blown-off from the fiberising rotors (1, 21. 21') of the fiberising apparatus towards a collecting member by means of fibre blow-off means (4, 24, 24') arranged at the active peripheries of the rotors (1, 21, 21'), - binder is applied onto the mineral fibres during their formation by means of a binder applying member arranged at the active peripheries of the rotors (1, 21, 21'), characterised in that - a number of treatment nozzles (7, 27, 27') are arranged directly on the outside of the blow-off means (4, 24, 24') either so that they are in direct contact with the fibre blow-off means (4, 24, 24'), with its blow-off slot (4', 29, 29'), or so that they are arranged in the immediate vicinity thereof, at a maximum distance of 50 mm, from the fibre blow-off means, and that - a first number of treatment nozzles (7, 27, 27') is fed with a first binder and second number of treatment nozzles (7, 27, 27') is fed with a second binder. - mineral melt is led to a first rotating fiberising rotor in a fiberising apparatus comprising at least two fiberising rotors (1, 21, 21'), - mineral melt is thrown from the mantle surface of the first rotating rotor to the mantle surface of a second rotating rotor, and from there successively to the mantle surfaces of possible following rotors, - mineral melt is formed to mineral fibres at the active peripheries of the rotating fiberising rotors (1, 21, 21'), - the formed mineral fibres are blown-off from the fiberising rotors (1, 21. 21') of the fiberising apparatus towards a collecting member by means of fibre blow-off means (4, 24, 24') arranged at the active peripheries of the rotors (1, 21, 21'), - binder is applied onto the mineral fibres during their formation by means of a binder applying member arranged at the active peripheries of the rotors (1, 21, 21'), - a number of treatment nozzles (7, 27, 27') are arranged directly on the outside of the blow-off means (4, 24, 24') either so that they are in direct contact with the fibre blow-off means (4, 24, 24'), with its blow-off slot (4', 29, 29'), or so that they are arranged in the immediate vicinity thereof, at a maximum distance of 50 mm, from the fibre blow-off means, and that - a first number of treatment nozzles (7, 27, 27') is fed with a first binder and second number of treatment nozzles (7, 27, 27') is fed with a second binder.
A balanced redundancy cross-connect communications interconnect comprising: - a first plurality of communication pathway capabilities; - a collective of side stage sub arrays having a number of inputs and outputs within an array that is not equal responsive to at least one of said first plurality of communication pathway capabilities; - a collective of balanced connectivity side stage sub arrays responsive to said collective of side stage sub arrays having a number of inputs and outputs within an array that is not equal; - a collective of center stage sub arrays wired or communicating with said collective of balanced connectivity side stage sub arrays capable of transmitting a communication; and - a second plurality of communication pathway capabilities at least one of which is capable of being communicationally responsive to at least one of said first plurality of communication pathway capabilities; - wherein said collective of balanced connectivity side stage sub arrays comprises a further collective of side stage sub arrays having an equal number of inputs and outputs within an array, and wherein the number of stages comprises an odd number. - a first plurality of communication pathway capabilities; - a collective of side stage sub arrays having a number of inputs and outputs within an array that is not equal responsive to at least one of said first plurality of communication pathway capabilities; - a collective of balanced connectivity side stage sub arrays responsive to said collective of side stage sub arrays having a number of inputs and outputs within an array that is not equal; - a collective of center stage sub arrays wired or communicating with said collective of balanced connectivity side stage sub arrays capable of transmitting a communication; and - a second plurality of communication pathway capabilities at least one of which is capable of being communicationally responsive to at least one of said first plurality of communication pathway capabilities; - wherein said collective of balanced connectivity side stage sub arrays comprises a further collective of side stage sub arrays having an equal number of inputs and outputs within an array, and wherein the number of stages comprises an odd number.
A gauge for transmitting acoustic signals through a pipe to a receiver, the gauge comprising: an acoustic wave generator; a coupler mechanically connected to the acoustic wave generator, wherein the coupler is engageable and disengageable with the pipe, wherein the coupler defines an acoustic transmission path between the acoustic wave generator and the pipe when engaged with the pipe; and a signal controller in communication with the acoustic wave generator, wherein the gauge is insertable into the inside diameter of the pipe, characterized in that the coupler comprises: a first set of slips positioned at one end of the acoustic wave generator; a second set of slips positioned at an opposite end of the acoustic wave generator; a setting mechanism mechanically connected to the first and second sets of slips (36, 56), wherein the setting mechanism acoustically couples the acoustic wave generator to the first and second sets of slips (36, 56) when the setting mechanism sets the slips. an acoustic wave generator; a coupler mechanically connected to the acoustic wave generator, wherein the coupler is engageable and disengageable with the pipe, wherein the coupler defines an acoustic transmission path between the acoustic wave generator and the pipe when engaged with the pipe; and a signal controller in communication with the acoustic wave generator, wherein the gauge is insertable into the inside diameter of the pipe, characterized in that the coupler comprises: a first set of slips positioned at one end of the acoustic wave generator; a second set of slips positioned at an opposite end of the acoustic wave generator; a setting mechanism mechanically connected to the first and second sets of slips (36, 56), wherein the setting mechanism acoustically couples the acoustic wave generator to the first and second sets of slips (36, 56) when the setting mechanism sets the slips. a first set of slips positioned at one end of the acoustic wave generator; a second set of slips positioned at an opposite end of the acoustic wave generator; a setting mechanism mechanically connected to the first and second sets of slips (36, 56), wherein the setting mechanism acoustically couples the acoustic wave generator to the first and second sets of slips (36, 56) when the setting mechanism sets the slips.
A method implemented by an apparatus, the method comprising: receiving a location of a white space device; determining an original probability with which a primary receiver would operate correctly at the location, wherein the original probability is determined without taking interference due to the white space device into account; determining a maximum degradation to the original probability that the white space device may cause at the location, wherein the maximum degradation is based at least in part on an estimated signal quality of a primary system at the location; and determining a maximum transmission power for the white space device based on the maximum degradation. receiving a location of a white space device; determining an original probability with which a primary receiver would operate correctly at the location, wherein the original probability is determined without taking interference due to the white space device into account; determining a maximum degradation to the original probability that the white space device may cause at the location, wherein the maximum degradation is based at least in part on an estimated signal quality of a primary system at the location; and determining a maximum transmission power for the white space device based on the maximum degradation.
Press-fit sleeve for sealing and cooling a component projecting through a fire deck opening in the cylinder head of an internal combustion engine, comprising: a connecting point at a first end of the press-fit sleeve, said connecting point being designed for press fitting into an indentation at an end of the fire deck opening that faces away from a combustion chamber, wherein the connecting point comprises a radially inwardly curved collar with a contact surface; a radially inwardly protruding step at a second end of the press-fit sleeve lying opposite the first end; and a lateral surface of the press-fit sleeve, said lateral surface being closed fluid-tightly between the first end and the second end and being or being able to be brought into contact with a water jacket surrounding the press-fit sleeve. a connecting point at a first end of the press-fit sleeve, said connecting point being designed for press fitting into an indentation at an end of the fire deck opening that faces away from a combustion chamber, wherein the connecting point comprises a radially inwardly curved collar with a contact surface; a radially inwardly protruding step at a second end of the press-fit sleeve lying opposite the first end; and a lateral surface of the press-fit sleeve, said lateral surface being closed fluid-tightly between the first end and the second end and being or being able to be brought into contact with a water jacket surrounding the press-fit sleeve.
A method of handover adaptation, comprising: storing at least one adapted handover parameter at an apparatus, wherein the at least one adapted handover parameter is designated for mitigating a handover issue associated with handover of the apparatus between a designated pair of access points (104, 106); determining, at the apparatus, whether to handover the apparatus from a first one of the designated pair of access points to a second one of the designated pair of access points, wherein the determination is based on the stored at least one adapted handover parameter; and determining a period of time that the stored at least one adapted handover parameter has not been used since a last use; and deleting the stored at least one adapted handover parameter if the period of time is greater than or equal to a threshold time period. storing at least one adapted handover parameter at an apparatus, wherein the at least one adapted handover parameter is designated for mitigating a handover issue associated with handover of the apparatus between a designated pair of access points (104, 106); determining, at the apparatus, whether to handover the apparatus from a first one of the designated pair of access points to a second one of the designated pair of access points, wherein the determination is based on the stored at least one adapted handover parameter; and determining a period of time that the stored at least one adapted handover parameter has not been used since a last use; and deleting the stored at least one adapted handover parameter if the period of time is greater than or equal to a threshold time period.
A shift control device for a bicycle transmission comprising: a mounting member adapted to mount the shift control device to a bicycle handlebar; a lever control operatively coupled to the mounting member; a push button operatively coupled to the mounting member and moveable between a rest position and an operating position such that the push button returns to the rest position after moving to the operating position; a positioning unit rotatable to a plurality of positions corresponding to gear positions of the bicycle transmission, wherein the push button is operatively coupled to the positioning unit such that the positioning unit moves in a second direction in response to operation of the push button; and a positioning member that is configured to maintain the positioning unit in each of the plurality of positions corresponding to gear positions of the bicycle transmission, characterized in that the shift control device comprising the lever integrally formed with the positioning unit, wherein the lever is coupled to the positioning unit such that the positioning unit moves in a first direction opposite the second direction in response to operation of the lever, and the lever is configured to stop at the plurality of positions corresponding to gear positions of the bicycle transmission. a mounting member adapted to mount the shift control device to a bicycle handlebar; a lever control operatively coupled to the mounting member; a push button operatively coupled to the mounting member and moveable between a rest position and an operating position such that the push button returns to the rest position after moving to the operating position; a positioning unit rotatable to a plurality of positions corresponding to gear positions of the bicycle transmission, wherein the push button is operatively coupled to the positioning unit such that the positioning unit moves in a second direction in response to operation of the push button; and a positioning member that is configured to maintain the positioning unit in each of the plurality of positions corresponding to gear positions of the bicycle transmission, characterized in that the shift control device comprising the lever integrally formed with the positioning unit, wherein the lever is coupled to the positioning unit such that the positioning unit moves in a first direction opposite the second direction in response to operation of the lever, and the lever is configured to stop at the plurality of positions corresponding to gear positions of the bicycle transmission.