mhurhangee/ep-ind-claims huggingface dataset:
Method for locating a fault point on a high-voltage three-phase AC cable comprising a first end, a second end, and at least one section (P 1, P 2) extending between said ends (10, 11), the cable comprising a conductor (R, S, T) and a respective shield (S R, S S, S T) per phase, shields (S R, S S, S T) being connected to a surge arrester device (3, 4) connected to ground at one end of said at least one section (P 1, P 2), and shields (S R, S S, S T) being connected to a grounding element at the other end of said at least one section (P1, P2), the cable comprising an earth continuity conductor establishing a common ground connecting the ground connections (20, 30, 40) of the grounding element(s) and the surge arrester device(s) (3, 4), the method comprising the following steps: - measuring the conductor current (I R1, I S1, I T1, I R2, I S2, I T2) circulating through each conductor (R, S, T) both at the first end and at the second end of the cable, - measuring the shield current (I SR1, I SS1, I ST1, I SR2, I SS2, I ST2) circulating through each shield (S R, S S, S T) in each section (P 1, P 2) at a point close to the grounding element, - measuring the earth continuity conductor current (I ECC1, I ECC2) circulating through each section (P 1, P 2) at a point close to the grounding element, - determining the conductor (R, S, T) in fault based on the previously measured conductor currents (I R1, I S1, I T1, I R2, I S2, I T2), - in the event that the cable comprises more than one section (P 1, P 2), determining section (P 1, P 2) in fault based on the previously measured shield currents (I SR1, I SS1, I ST1, I SR2, I SS2, I ST2), and - locating the fault point by means of a model of section (P 1, P 2) in fault of the earth continuity conductor, the only unknown being the distance (x) to the fault point from an end of said section (P 1, P 2) in fault. - measuring the conductor current (I R1, I S1, I T1, I R2, I S2, I T2) circulating through each conductor (R, S, T) both at the first end and at the second end of the cable, - measuring the shield current (I SR1, I SS1, I ST1, I SR2, I SS2, I ST2) circulating through each shield (S R, S S, S T) in each section (P 1, P 2) at a point close to the grounding element, - measuring the earth continuity conductor current (I ECC1, I ECC2) circulating through each section (P 1, P 2) at a point close to the grounding element, - determining the conductor (R, S, T) in fault based on the previously measured conductor currents (I R1, I S1, I T1, I R2, I S2, I T2), - in the event that the cable comprises more than one section (P 1, P 2), determining section (P 1, P 2) in fault based on the previously measured shield currents (I SR1, I SS1, I ST1, I SR2, I SS2, I ST2), and - locating the fault point by means of a model of section (P 1, P 2) in fault of the earth continuity conductor, the only unknown being the distance (x) to the fault point from an end of said section (P 1, P 2) in fault.
A surgical drill comprising: a drill guide; a guide pin; and a drill; said drill guide comprising a body and a head rotatably mounted to said body at a pivot point for permitting drilling along a first axis (x) and thereafter also along a second axis (y) and a longitudinal channel passing through said body and through said head for releasably accepting the guide pin; wherein said drill guide further comprises an actuator for adjusting the angular orientation of the head with respect to the body; characterized in that the drill has an internal channel for receiving said guide pin therein; and in that said actuator comprises: a rod; a screw having external threads; and a knob threadably connected to said screw; said rod directly connected at a distal end to the head and connected at a proximal end to the screw, such that rotation of said knob causes said screw and said rod to advance in a distal direction or retract in a proximal direction, further causing said head to rotate about the pivot point. a drill guide; a guide pin; and a drill; said drill guide comprising a body and a head rotatably mounted to said body at a pivot point for permitting drilling along a first axis (x) and thereafter also along a second axis (y) and a longitudinal channel passing through said body and through said head for releasably accepting the guide pin; wherein said drill guide further comprises an actuator for adjusting the angular orientation of the head with respect to the body; characterized in that the drill has an internal channel for receiving said guide pin therein; and in that said actuator comprises: a rod; a screw having external threads; and a knob threadably connected to said screw; said rod directly connected at a distal end to the head and connected at a proximal end to the screw, such that rotation of said knob causes said screw and said rod to advance in a distal direction or retract in a proximal direction, further causing said head to rotate about the pivot point.
A delivery vehicle comprising a glycosphingolipid and an agent to be delivered, for example a therapeutic agent, wherein the glycosphingolipid comprises a ceramide that comprises (a) a short chain fatty acid (C4 - C12) or (b) a C16 fatty acid comprising a cis double bond between two carbon atoms and the agent to be delivered is attached to the oligosaccharide of the glycosphingolipid.
Motor vehicle headlight comprising a housing and a housing opening, a holding cap that covers the housing opening being provided, the holding cap having a holding portion to which an electrically driven fan is fastened, the holding cap having a circular cylindrical transition portion which is tubular and has a circumferential end facing the housing and a circumferential end facing away from the housing, characterized in that three mutually offset flange portions are provided which project from the transition portion in the radial direction and have an opening in order to fasten the holding cap, together with the fan, to a fastening portion of the housing, the holding portion being designed as a planar holding portion which is fastened to the side facing away from the housing and closes the holding cap to the outside, the fan being guided through the housing opening into an interior of the housing, the holding cap and the fastening portion of the housing to which the holding cap is fastened being configured, by the material composition and structural design thereof, to dampen a transfer of mechanical vibrations between the fan and the housing, the fan having a fan frame, the holding cap having fastening means (56, 58), and the fan frame being fastened to the holding portion by means of the fastening means (56, 58) in such a way that the fan is spaced apart from the holding portion.
A transmit power determining method, comprising: determining, by a first wireless communications device, a distance between the first wireless communications device and a second wireless communications device; determining, by the first wireless communications device, a working frequency of the second wireless communications device; and when the first wireless communications device determines that a first condition is met and that a maximum transmit power corresponding to the first wireless communications device is greater than a preset threshold, adjusting the maximum transmit power, so that the adjusted maximum transmit power is equal to or less than the preset threshold, wherein the preset threshold is used to suppress, under the first condition, interference caused by the first wireless communications device to receiving performance of the second wireless communications device, wherein the first condition comprises that the distance is less than or equal to a first threshold, and a difference between a working frequency of the first wireless communications device and the working frequency of the second wireless communications device is less than or equal to a second threshold. determining, by a first wireless communications device, a distance between the first wireless communications device and a second wireless communications device; determining, by the first wireless communications device, a working frequency of the second wireless communications device; and when the first wireless communications device determines that a first condition is met and that a maximum transmit power corresponding to the first wireless communications device is greater than a preset threshold, adjusting the maximum transmit power, so that the adjusted maximum transmit power is equal to or less than the preset threshold, wherein the preset threshold is used to suppress, under the first condition, interference caused by the first wireless communications device to receiving performance of the second wireless communications device, wherein the first condition comprises that the distance is less than or equal to a first threshold, and a difference between a working frequency of the first wireless communications device and the working frequency of the second wireless communications device is less than or equal to a second threshold.
A blood pump assembly comprising: a blood pump configured for implantation; and a cable assembly secured to the blood pump for providing power and control signals to the blood pump, the cable assembly including a strain relief assembly and a driveline, the strain relief assembly securing the cable assembly to the blood pump and having an outer surface that is curved along a longitudinal extent of the strain relief assembly at least along an outer peripheral side of the outer surface, the strain relief assembly defining a compartment and an internal passage that leads to the compartment, and the driveline housing a plurality of conductors that extend from the driveline through the internal passage and into the compartment. a blood pump configured for implantation; and a cable assembly secured to the blood pump for providing power and control signals to the blood pump, the cable assembly including a strain relief assembly and a driveline, the strain relief assembly securing the cable assembly to the blood pump and having an outer surface that is curved along a longitudinal extent of the strain relief assembly at least along an outer peripheral side of the outer surface, the strain relief assembly defining a compartment and an internal passage that leads to the compartment, and the driveline housing a plurality of conductors that extend from the driveline through the internal passage and into the compartment. the strain relief assembly securing the cable assembly to the blood pump and having an outer surface that is curved along a longitudinal extent of the strain relief assembly at least along an outer peripheral side of the outer surface, the strain relief assembly defining a compartment and an internal passage that leads to the compartment, and the driveline housing a plurality of conductors that extend from the driveline through the internal passage and into the compartment.
An apparatus (12, 112) for use in humidifying a flow of treatment gas for providing to a user, the apparatus comprising: a housing (18, 118); an inlet (22, 122) structured to receive the flow of treatment gas from a gas flow generator; an outlet (24, 124) structured to convey the flow of treatment gas to a patient interface device; a compartment (26, 126) defined in the housing, the compartment being structured to hold a volume of water therein; a primary valve (30, 130) disposed between the inlet and the compartment, the primary valve being structured to permit passage of the flow of treatment gas from the inlet to the compartment and to prevent passage of a fluid from the compartment to the inlet; and a secondary valve (40, 140) disposed between the compartment and the inlet, the secondary valve being structured to permit passage of a fluid from the compartment to the inlet and to prevent passage of the flow of treatment gas from the inlet to the compartment, characterized in that the secondary valve (40, 140) is placed between the primary valve (30, 130) and the inlet (22. 122) of the apparatus (12, 112) and wherein the apparatus further comprises an elongated passage extending between the secondary valve and a distal end disposed at or about the outlet, wherein the elongated passage is structured to convey the fluid from the outlet to the secondary valve without exposing the fluid to the volume of water. a housing (18, 118); an inlet (22, 122) structured to receive the flow of treatment gas from a gas flow generator; an outlet (24, 124) structured to convey the flow of treatment gas to a patient interface device; a compartment (26, 126) defined in the housing, the compartment being structured to hold a volume of water therein; a primary valve (30, 130) disposed between the inlet and the compartment, the primary valve being structured to permit passage of the flow of treatment gas from the inlet to the compartment and to prevent passage of a fluid from the compartment to the inlet; and a secondary valve (40, 140) disposed between the compartment and the inlet, the secondary valve being structured to permit passage of a fluid from the compartment to the inlet and to prevent passage of the flow of treatment gas from the inlet to the compartment, characterized in that the secondary valve (40, 140) is placed between the primary valve (30, 130) and the inlet (22. 122) of the apparatus (12, 112) and wherein the apparatus further comprises an elongated passage extending between the secondary valve and a distal end disposed at or about the outlet, wherein the elongated passage is structured to convey the fluid from the outlet to the secondary valve without exposing the fluid to the volume of water.
A method of operation of a base station in a cellular communications network, comprising: establishing a data radio bearer between the base station and a mobile terminal for a VoIP call; determining that a radio frequency parameter for the data radio bearer satisfies a predefined coverage-based condition; and in response to determining that the radio frequency parameter for the data radio bearer satisfies the predefined coverage-based condition, enabling RoHC for the VoIP call, wherein enabling RoHC for the VoIP call comprises performing an intra-cell handover of the VoIP call from the data radio bearer to a new data radio bearer that has RoHC enabled. establishing a data radio bearer between the base station and a mobile terminal for a VoIP call; determining that a radio frequency parameter for the data radio bearer satisfies a predefined coverage-based condition; and in response to determining that the radio frequency parameter for the data radio bearer satisfies the predefined coverage-based condition, enabling RoHC for the VoIP call, wherein enabling RoHC for the VoIP call comprises performing an intra-cell handover of the VoIP call from the data radio bearer to a new data radio bearer that has RoHC enabled.
A crystalline sodium salt of 5-methyl- -tetrahydrofolic acid wherein the molar ratio of 5-methyl- -tetrahydrofolic acid to sodium is from 1:0.5 to 1:1.5 or hydrates or solvates thereof.
A compression garment, comprising: a body, which is made of inelastic laminate materials and/or elastic materials and is dimensioned to wrap at least partially around a length of a torso of a user, wherein the body further comprises indicia indicating a dimension of the user to trim the body to conform to the torso of the user, a plurality of tension bands positioned along the body and comprising one or more fasteners, and at least one shoulder strap, wherein the shoulder strap extends away from an upper edge of the body and is operable to wrap over the shoulder of the user to hold the garment in position. a body, which is made of inelastic laminate materials and/or elastic materials and is dimensioned to wrap at least partially around a length of a torso of a user, wherein the body further comprises indicia indicating a dimension of the user to trim the body to conform to the torso of the user, a plurality of tension bands positioned along the body and comprising one or more fasteners, and at least one shoulder strap, wherein the shoulder strap extends away from an upper edge of the body and is operable to wrap over the shoulder of the user to hold the garment in position.
A multipath light test device for a time of flight, TOF, module, characterized in that the multipath light test device comprises: a light-splitting plate configured to split light emitted from the TOF module; a first reflector plate connected to the light-splitting plate and forming a first angle with the light-splitting plate; and a second reflector plate disposed on one side opposite to the first reflector plate, forming a second angle with the first reflector plate; wherein one part of the emitted light from the TOF module is returned to the TOF module along a first optical path after being reflected on the light-splitting plate with a first reflectivity; and the other part of the emitted light from the TOF module is transmitted through the light-splitting plate, incident to the first reflector plate and further to the second reflector plate, and then returned to the TOF module along a second optical path. a light-splitting plate configured to split light emitted from the TOF module; a first reflector plate connected to the light-splitting plate and forming a first angle with the light-splitting plate; and a second reflector plate disposed on one side opposite to the first reflector plate, forming a second angle with the first reflector plate; wherein one part of the emitted light from the TOF module is returned to the TOF module along a first optical path after being reflected on the light-splitting plate with a first reflectivity; and the other part of the emitted light from the TOF module is transmitted through the light-splitting plate, incident to the first reflector plate and further to the second reflector plate, and then returned to the TOF module along a second optical path.
An organic device including, on a surface of a substrate, a pixel region in which a plurality of pixels including an organic function layer are arranged, and a peripheral region including a pad electrode, the organic device comprising a first layer, a sealing layer, and a resin layer stacked in that order from a side of the surface, wherein the organic function layer is arranged between the first layer and the sealing layer in the pixel region, and the first layer, the sealing layer, and the resin layer have openings for exposing the pad electrode in the peripheral region, the sealing layer includes, from the side of the surface, a second layer and a third layer each having a water permeability lower than that of the first layer, and a fourth layer arranged between the second layer and the third layer and having a defect density lower than that of the second layer, an end of the opening of the first layer is covered with the second layer, the fourth layer, and the third layer, a step formed in the second layer that is arranged above the end of the opening of the first layer, is covered with the fourth layer, and a step formed in the third layer that is arranged above the end of the opening of the first layer, is covered with the resin layer. the organic device comprising a first layer, a sealing layer, and a resin layer stacked in that order from a side of the surface, wherein the organic function layer is arranged between the first layer and the sealing layer in the pixel region, and the first layer, the sealing layer, and the resin layer have openings for exposing the pad electrode in the peripheral region, the sealing layer includes, from the side of the surface, a second layer and a third layer each having a water permeability lower than that of the first layer, and a fourth layer arranged between the second layer and the third layer and having a defect density lower than that of the second layer, an end of the opening of the first layer is covered with the second layer, the fourth layer, and the third layer, a step formed in the second layer that is arranged above the end of the opening of the first layer, is covered with the fourth layer, and a step formed in the third layer that is arranged above the end of the opening of the first layer, is covered with the resin layer.
An ionization gauge to measure pressure comprising: an electron source cathode that emits electrons; an anode that defines an ionization space; a collector electrode to collect ions formed by an impact between the electrons and gas in the ionization space; and a controller that actively controls emission current from the electron source cathode to an optimum emission current level by heating the electron source cathode, characterised in that the optimum emission current level being determined from a stored profile of emission current relative to pressure, the controller responding to sensed temperature of the electron source cathode to reduce the cathode temperature and reduce the emission current level to less than the optimum emission current level with reduced sensitivity of the gauge. an electron source cathode that emits electrons; an anode that defines an ionization space; a collector electrode to collect ions formed by an impact between the electrons and gas in the ionization space; and a controller that actively controls emission current from the electron source cathode to an optimum emission current level by heating the electron source cathode, characterised in that the optimum emission current level being determined from a stored profile of emission current relative to pressure, the controller responding to sensed temperature of the electron source cathode to reduce the cathode temperature and reduce the emission current level to less than the optimum emission current level with reduced sensitivity of the gauge.
A treatment solution for insulation coating for grain oriented electrical steel sheet, comprising: at least one member selected from phosphates of Mg, Ca, Ba, Sr, Zn, Al, and Mn; and colloidal silica in a proportion of 0.5 to 10 mol in terms of SiO 2 and at least one member selected from permanganates of Mg, Sr, Zn, Ba, and Ca in a proportion of 0.02 to 2.5 mol in terms of metal elements in the permanganates, relative to PO 4:1 mol in the phosphates. at least one member selected from phosphates of Mg, Ca, Ba, Sr, Zn, Al, and Mn; and colloidal silica in a proportion of 0.5 to 10 mol in terms of SiO 2 and at least one member selected from permanganates of Mg, Sr, Zn, Ba, and Ca in a proportion of 0.02 to 2.5 mol in terms of metal elements in the permanganates, relative to PO 4:1 mol in the phosphates.