mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: establishing a discontinuous reception and/or transmission session between a mobile station and a serving cell of a cellular network; transmitting an access probe signal to one or more non-serving cells (132, 136) of the cellular network during a discontinuous reception and/or transmission interval; receiving, at the mobile station, round trip delay estimates from the one or more non-serving cells (132, 136) at least in part in response to the transmitted access probe signal; and determining (220, 740) a position location for the mobile station based, at least in part, on the round trip delay estimates received from the one or more non-serving cells (132, 136) and further based, at least in part, on position location information for the one or more non-serving cells (132, 136). establishing a discontinuous reception and/or transmission session between a mobile station and a serving cell of a cellular network; transmitting an access probe signal to one or more non-serving cells (132, 136) of the cellular network during a discontinuous reception and/or transmission interval; receiving, at the mobile station, round trip delay estimates from the one or more non-serving cells (132, 136) at least in part in response to the transmitted access probe signal; and determining (220, 740) a position location for the mobile station based, at least in part, on the round trip delay estimates received from the one or more non-serving cells (132, 136) and further based, at least in part, on position location information for the one or more non-serving cells (132, 136).
A sensor assembly for level measurement of high and/ or low energy systems such as a high or low temperature and/or high or low pressure tank, the sensor assembly comprising: an instrumentation head to determine a level of media in a tank; a coupler including a body having a mounting end for connection to equipment of a high or low energy system and a receiving end for receiving connection of the instrumentation head, and a coaxial hardline extending between the mounting end and the receiving end and including a conduction tip arranged near the mounting end, wherein the body includes a mount receiver at the mounting end configured to receive a bushing assembly to engage a connector with the conduction tip; and a sealing system including a first seal section disposed between the conduction tip and the receiving end of the body. an instrumentation head to determine a level of media in a tank; a coupler including a body having a mounting end for connection to equipment of a high or low energy system and a receiving end for receiving connection of the instrumentation head, and a coaxial hardline extending between the mounting end and the receiving end and including a conduction tip arranged near the mounting end, wherein the body includes a mount receiver at the mounting end configured to receive a bushing assembly to engage a connector with the conduction tip; and a sealing system including a first seal section disposed between the conduction tip and the receiving end of the body.
A receptacle terminal comprising: a terminal body comprising a cable end configured to be terminated to a cable and a mating end configured to be mated with a blade terminal, the terminal body comprising a receptacle at the mating end, the receptacle having a first wall and a second wall generally parallel to, and spaced apart from, the first wall, the receptacle having a receiving space between the first and second walls (124, 126) configured to receive the blade terminal; and a contact spring coupled to the terminal body, the contact spring having a spring wall received in the receiving space and configured to be positioned between the first wall and the blade terminal when received in the receiving space, the spring wall having an inner surface and an outer surface, the inner surface being spring biased against the first wall, the outer surface being configured to be spring biased against the blade terminal when received in the receiving space, the contact spring defining a first contact spring coupled to a first end of the receptacle, characterized in that the receptacle terminal further comprises a second contact spring identical to the first contact spring, the second contact spring being coupled to a second end of the receptacle.
A wear member (200, 300, 400, 500) configured to be attached to a work implement, the wear member (200, 300) comprising: a body (202, 302, 402, 502) defining a front working region (204, 304, 404), a rear mounting region (206, 306, 406), a first side region (208, 308, 408) connecting the front working region (204, 304, 404) to the rear mounting region (206, 306, 406), and a second side region (210, 310, 410) connecting the front working region (204, 304, 404) to the rear mounting region (206, 306, 406); characterised in that the rear mounting region (206, 306, 406) includes a shelf (212, 312) forming a bottom surface (214, 314) and a rear surface (216, 316). a body (202, 302, 402, 502) defining a front working region (204, 304, 404), a rear mounting region (206, 306, 406), a first side region (208, 308, 408) connecting the front working region (204, 304, 404) to the rear mounting region (206, 306, 406), and a second side region (210, 310, 410) connecting the front working region (204, 304, 404) to the rear mounting region (206, 306, 406); characterised in that the rear mounting region (206, 306, 406) includes a shelf (212, 312) forming a bottom surface (214, 314) and a rear surface (216, 316).
An electric power supplying system comprising: at least two systems (1, 2) each including a bus line (10, 11)which is formed by at least two conductors and on which an information signal representing information is superimposed on electric power; at least one power supply server (100, 101) which is connected to the bus line and which supplies the electric power; and at least one client (200, 201) which is connected to the bus line and which receives the supply of the electric power from the power supply server, wherein the at least two systems are connected to each other by connecting the bus lines using conductors (300, 400, 500), wherein the conductors include a connector having at least two electrodes that connect with each of the conductors forming the bus line, and characterized in that the connector has a structure in which, when the connector is connected to the bus line, the electrodes are connected to the bus line one at a time, causing information signals but not electric power to flow between the bus lines during the state where only one electrode is connected. at least two systems (1, 2) each including a bus line (10, 11)which is formed by at least two conductors and on which an information signal representing information is superimposed on electric power; at least one power supply server (100, 101) which is connected to the bus line and which supplies the electric power; and at least one client (200, 201) which is connected to the bus line and which receives the supply of the electric power from the power supply server, wherein the at least two systems are connected to each other by connecting the bus lines using conductors (300, 400, 500), wherein the conductors include a connector having at least two electrodes that connect with each of the conductors forming the bus line, and characterized in that the connector has a structure in which, when the connector is connected to the bus line, the electrodes are connected to the bus line one at a time, causing information signals but not electric power to flow between the bus lines during the state where only one electrode is connected.
Passenger transport vehicle, comprising a sliding door and a foot-step, wherein the foot-step in a deactivated state is arranged vertically below the sliding door, and wherein the foot-step in an activated state is arranged substantially horizontally and/or obliquely downwards below the sliding door such that the foot-step can be used as a step and/or as a ramp for entry into the passenger transport vehicle through the sliding door, wherein the passenger transport vehicle comprises a first vertical body pillar, wherein the passenger transport vehicle comprises a second vertical body pillar, wherein the foot-step in the deactivated state is arranged outside the vertical body pillars (3, 4) in such a manner that the foot-step in the deactivated state is supported on the first and on the second vertical body pillars (3, 4) when a force acts from the outside, wherein the first vertical body pillar is arranged on a first side of the sliding door and the second vertical body pillar is arranged on a second side of the sliding door opposite the first side, and wherein the foot-step in the deactivated state is arranged outside the vertical body pillars (3, 4) in such a manner that the foot-step in a lateral view protrudes beyond the first and the second body pillars (3, 4).
Method for operating a high-temperature battery on a power source, having the following steps: ascertaining a present source power (P N) of the power source; ascertaining (201; 200) a charging power (Ps) of the high-temperature battery, which characterizes the electric power drawable during electric charging of the high-temperature battery in its present state of charge; comparing (215; 214) the present source power (P N) with the charging power (Ps); and heating the high-temperature battery if the present source power (P N) is higher than the charging power (P S), wherein the source power (P N) that is no longer able or supposed to be absorbed by the high-temperature battery in electrical form is used for heating the high-temperature battery by means of a heating element in the high-temperature battery. ascertaining a present source power (P N) of the power source; ascertaining (201; 200) a charging power (Ps) of the high-temperature battery, which characterizes the electric power drawable during electric charging of the high-temperature battery in its present state of charge; comparing (215; 214) the present source power (P N) with the charging power (Ps); and heating the high-temperature battery if the present source power (P N) is higher than the charging power (P S), wherein the source power (P N) that is no longer able or supposed to be absorbed by the high-temperature battery in electrical form is used for heating the high-temperature battery by means of a heating element in the high-temperature battery.
A method of automatically placing a drill bit used to form an opening in a subsurface formation on a bottom of the opening being formed, comprising: a) increasing a flow rate in a drill string to a target flow; b) monitoring and controlling a flow rate of fluid into the drill string to be substantially the same as a flowrate of fluid out of the opening, wherein controlling the flow rate of fluid into the drill string to be substantially the same as the flow rate of fluid out of the opening comprises controlling at least one of the flow rates such that the difference in flow rate into the drill string and out of the drill string is within user set point limits; c) allowing a fluid pressure to reach a relatively steady state, comprising allowing a standpipe pressure to be in a steady state within predetermined set point limits; the method is characterized in further comprising: d) automatically moving the drill bit toward the bottom of the opening at a selected rate of advance until an increase in measured differential pressure indicates that the drill bit is at the bottom of the opening. a) increasing a flow rate in a drill string to a target flow; b) monitoring and controlling a flow rate of fluid into the drill string to be substantially the same as a flowrate of fluid out of the opening, wherein controlling the flow rate of fluid into the drill string to be substantially the same as the flow rate of fluid out of the opening comprises controlling at least one of the flow rates such that the difference in flow rate into the drill string and out of the drill string is within user set point limits; c) allowing a fluid pressure to reach a relatively steady state, comprising allowing a standpipe pressure to be in a steady state within predetermined set point limits;
A method for determining copy number variation, comprising amplifying a plurality of different target sequences in a sample, comprising: a) producing a plurality of different amplified target sequences within a single amplification reaction mixture by contacting the plurality of different target sequences with a plurality of target-specific primers and a polymerase under amplification conditions, where at least one of the plurality of target-specific primers and at least one of the amplified target sequences includes a cleavable group, and wherein the amplifying includes no more than one round of target specific selection for at least one of the target sequences to be amplified; b) cleaving a cleavable group from at least one amplified target sequence; c) producing one or more adapter-ligated amplified target sequences, by ligating at least one adapter to at least one amplified target sequence; d) reamplifying the at least one adapter-ligated amplified target sequence using primers; e) sequencing the at least one amplified adaptor-ligated target sequence; f) calculating the number of sequencing reads for the at least one amplified adaptor-ligated target sequence; and, g) determining copy number variation of the at least one amplified adaptor-ligated target sequence. a) producing a plurality of different amplified target sequences within a single amplification reaction mixture by contacting the plurality of different target sequences with a plurality of target-specific primers and a polymerase under amplification conditions, where at least one of the plurality of target-specific primers and at least one of the amplified target sequences includes a cleavable group, and wherein the amplifying includes no more than one round of target specific selection for at least one of the target sequences to be amplified; b) cleaving a cleavable group from at least one amplified target sequence; c) producing one or more adapter-ligated amplified target sequences, by ligating at least one adapter to at least one amplified target sequence; d) reamplifying the at least one adapter-ligated amplified target sequence using primers; e) sequencing the at least one amplified adaptor-ligated target sequence; f) calculating the number of sequencing reads for the at least one amplified adaptor-ligated target sequence; and, g) determining copy number variation of the at least one amplified adaptor-ligated target sequence.
An apparatus for removing a liner attached to an implanted acetabular shell the apparatus comprising: ✔ a rim plate adapted to be placed on top of the acetabular shell, the rim plate having at least one drill guide opening having a diameter; ✔ a pilot hole drill tip sized to be inserted into the at least one drill guide opening to create a pilot hole in the attached liner; ✔ a removal tool having an elongate shaft and a threaded tip extending from the shaft elongate, the threaded tip sized to be inserted into the pilot hole for detaching the attached liner from the implanted acetabular shell characterized in that ✔ the at least one drill guide opening of the rim plate includes a plurality of circumferentially spaced drill guide openings with each being angled to guide the pilot hole drill tip into the attached liner. ✔ a rim plate adapted to be placed on top of the acetabular shell, the rim plate having at least one drill guide opening having a diameter; ✔ a pilot hole drill tip sized to be inserted into the at least one drill guide opening to create a pilot hole in the attached liner; ✔ a removal tool having an elongate shaft and a threaded tip extending from the shaft elongate, the threaded tip sized to be inserted into the pilot hole for detaching the attached liner from the implanted acetabular shell characterized in that ✔ the at least one drill guide opening of the rim plate includes a plurality of circumferentially spaced drill guide openings with each being angled to guide the pilot hole drill tip into the attached liner.
A method comprising: straining an iron wire or sheet comprising at least one iron crystal in a direction substantially parallel to a <001> crystal axis of the iron crystal to distort a unit cell structure of the at least one iron crystal and form a distorted unit cell structure having an increased length along the <001> crystal axis; while straining the iron wire or sheet, nitridizing the iron wire or sheet to form a nitridized iron wire or sheet; and annealing the nitridized iron wire or sheet to form a Fe 16 N 2 phase constitution in at least a portion of the nitridized iron wire or sheet. straining an iron wire or sheet comprising at least one iron crystal in a direction substantially parallel to a <001> crystal axis of the iron crystal to distort a unit cell structure of the at least one iron crystal and form a distorted unit cell structure having an increased length along the <001> crystal axis; while straining the iron wire or sheet, nitridizing the iron wire or sheet to form a nitridized iron wire or sheet; and annealing the nitridized iron wire or sheet to form a Fe 16 N 2 phase constitution in at least a portion of the nitridized iron wire or sheet.
A compound represented by one of Formulae -, or a pharmaceutically acceptable salt or ester, hydrate, individual optical isomers, a mixture of the individual enantiomers or a racemate thereof: wherein the compound represented by Formula is a β-amino acid derivative, and in Formula: X is a single bond; Y is NH; Z is C=O, C=S; W is CH; A is a single bond, -O-, -OH, -OCH 2 -, or -N 3; R 1 is H or F; R 2 is H, F, OH, CF 3, CH 2 OH, CHO or and n is 0 or 1. wherein the compound represented by Formula is a β-amino acid derivative, and in Formula: X is a single bond; Y is NH; Z is C=O, C=S; W is CH; A is a single bond, -O-, -OH, -OCH 2 -, or -N 3; R 1 is H or F; R 2 is H, F, OH, CF 3, CH 2 OH, CHO or and n is 0 or 1. X is a single bond; Y is NH; Z is C=O, C=S; W is CH; A is a single bond, -O-, -OH, -OCH 2 -, or -N 3; R 1 is H or F; R 2 is H, F, OH, CF 3, CH 2 OH, CHO or and n is 0 or 1.
A bent product obtained by bending an integrally extrusion-molded body, the bent product has: a metal core material comprising a tubular peripheral wall and a first partition wall dividing an internal space of the peripheral wall in a long-diameter direction of a cross section perpendicular to a longitudinal direction of the tubular shape and extending in the longitudinal direction of the tubular shape; and a coating layer formed on an outer surface of the core material and containing at least a thermoplastic resin, wherein said bent product has further: a bending having a bending radius of curvature and a bending center defining an inner side portion of the bending and an outer side portion of the bending, the inner side portion being closest to the bending center than the outer side portion; and a reinforcing means provided on an internal space side of the inner side portion of the bending of the peripheral wall, wherein a thickness (t) of the peripheral wall is 0.8-2.3 mm, and wherein a ratio H (mm)/R (mm) between a cross-sectional height of the core material and the radius of curvature of the bending is 0.09 or less. a metal core material comprising a tubular peripheral wall and a first partition wall dividing an internal space of the peripheral wall in a long-diameter direction of a cross section perpendicular to a longitudinal direction of the tubular shape and extending in the longitudinal direction of the tubular shape; and a coating layer formed on an outer surface of the core material and containing at least a thermoplastic resin, a bending having a bending radius of curvature and a bending center defining an inner side portion of the bending and an outer side portion of the bending, the inner side portion being closest to the bending center than the outer side portion; and a reinforcing means provided on an internal space side of the inner side portion of the bending of the peripheral wall,
A composition comprising a compound of Formula: wherein R 1 in each occurrence may be the same or different and is a member selected from the group consisting of H and C 1 to C 4 alkyl; R 2 in each occurrence may be the same or different and is a C 1 to C 10 hydrocarbon radical; R 3 in each occurrence is methyl; R 4 in each occurrence may be the same or different and is a C 1 to C 10 hydrocarbon radical; R 5 in each occurrence may be the same or different and is a member selected from the group consisting of H and C 1 to C 4 alkyl; and n is 1 to 1,200. R 1 in each occurrence may be the same or different and is a member selected from the group consisting of H and C 1 to C 4 alkyl; R 2 in each occurrence may be the same or different and is a C 1 to C 10 hydrocarbon radical; R 3 in each occurrence is methyl; R 4 in each occurrence may be the same or different and is a C 1 to C 10 hydrocarbon radical; R 5 in each occurrence may be the same or different and is a member selected from the group consisting of H and C 1 to C 4 alkyl; and n is 1 to 1,200.
A rail holding structure of rail terminal, comprising a case body and a grounding member, the case body being formed with an internal recess for receiving the grounding member, wherein the case body is formed with two lower sections (12, 13) corresponding to two outer lateral sides of the grounding member, a hook-like foot section outward extending from at least one of the two lower sections, at least one first connection side and at least one second connection side being respectively disposed on two lateral sides of the foot section, the first and second connection sides (161, 162) being connected with an outer sidewall of the lower section, whereby the foot section, the outer sidewall and the first and second connection sides (161, 162) together define therebetween a socket with an open top side, wherein a projection area (1611, 1613) of the first connection side and a projection area of the second connection side are staggered with each other in a transverse direction of the socket.
Landing system for a body, comprising landing legs of which at the end of each is placed a footpad, intended for braking the landing impact of said body when coming into contact with the ground and for supporting said body on the ground after landing, with all of said landing legs intended to be integral with the lower portion of said body, characterised in that said footpads define at the time of landing several possible contact planes with the ground.