mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a base station device configured to connect to a plurality of mobile stations and to relay data between the plurality of mobile stations and a mobile backhaul network; a plurality of wireless transmission devices each configured to function as a radio station configured to perform wireless transmission for connecting the base station device to the mobile backhaul network; and a data transfer device configured to be connected to each of the plurality of wireless transmission devices via a first communication cable and connected to the base station device via a second communication cable, the data transfer device being configured to function as a router or a switch and transfer data packets or data frames between the base station device and the plurality of wireless transmission devices, wherein the base station device is accommodated in a first enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein each of the plurality of wireless transmission devices is accommodated in a second enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein the data transfer device is accommodated in a third enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, and wherein the first enclosure, the second enclosure, and the third enclosure are distinct from one another. a base station device configured to connect to a plurality of mobile stations and to relay data between the plurality of mobile stations and a mobile backhaul network; a plurality of wireless transmission devices each configured to function as a radio station configured to perform wireless transmission for connecting the base station device to the mobile backhaul network; and a data transfer device configured to be connected to each of the plurality of wireless transmission devices via a first communication cable and connected to the base station device via a second communication cable, the data transfer device being configured to function as a router or a switch and transfer data packets or data frames between the base station device and the plurality of wireless transmission devices, wherein the base station device is accommodated in a first enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein each of the plurality of wireless transmission devices is accommodated in a second enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, wherein the data transfer device is accommodated in a third enclosure configured to provide protection from ingress of water and dust and is configured to be installed outdoors, and wherein the first enclosure, the second enclosure, and the third enclosure are distinct from one another.
Gearbox of a motor vehicle comprising at least one shaft which is rotatably connected to at least one first output shaft of said gearbox, and a parking brake device comprising at least one finger which is radially moveable between an inoperative position and an operative position in which it is received in at least one notch of a notched ring which is rotationally fixed to the shaft in order to immobilize said shaft, said shaft receiving at least one first coaxial element which is rotationally fixed to said shaft and comprises an outer bearing with claws able to allow the rotational coupling of said first element with at least one other second element of the gearbox, characterized in that the first coaxial element comprises the notched ring and in that the notches are delimited by the claws of said first element.
Method for testing an in particular biological sample, the sample being received in a cartridge, the sample being conveyed through a fluid system with a plurality of channels of the cartridge, the sample being conveyed to a sensor arrangement of the cartridge in order to detect analytes of the sample, characterised in that the sample is divided into a plurality of sample portions (P1, P2, P3), the sample portions (P1, P2, P3) each being individually conveyed and in succession conveyed to a sensor compartment of the common sensor arrangement, wherein a sensor cover of the sensor arrangement is actuated and/or lowered onto a sensor apparatus of the sensor arrangement for pretreatment and/or before detection.
A sealing device (11; 21; 41) comprising: a seal lip (14, 15; 25, 26; 45, 46) which in use, seals so as to prevent a foreign material in a machine external side from entering into a machine internal side; and a dust lip (18; 31; 51, 52) which in use, makes said foreign material hard to reach said seal lip (14, 15; 25, 26; 45, 46), said seal lip (14, 15; 25, 26; 45, 46) is formed by a conductive rubber material, and said dust lip (18; 31; 51, 52) is formed by a material which is lower in a conductivity than said seal lip (14, 15; 25, 26; 45, 46), characterized in that said seal lip (14, 15; 25, 26; 45, 46) is made of a material which is obtained by blending a conductive carbon at 3 to 50 weight part in a rubber at 100 weight part, and said dust lip (18; 31; 51, 52) is made of a material which is obtained by blending the conductive carbon at 1 weight part or less in the rubber at 100 weight part. a seal lip (14, 15; 25, 26; 45, 46) which in use, seals so as to prevent a foreign material in a machine external side from entering into a machine internal side; and a dust lip (18; 31; 51, 52) which in use, makes said foreign material hard to reach said seal lip (14, 15; 25, 26; 45, 46), said seal lip (14, 15; 25, 26; 45, 46) is formed by a conductive rubber material, and said dust lip (18; 31; 51, 52) is formed by a material which is lower in a conductivity than said seal lip (14, 15; 25, 26; 45, 46), characterized in that said seal lip (14, 15; 25, 26; 45, 46) is made of a material which is obtained by blending a conductive carbon at 3 to 50 weight part in a rubber at 100 weight part, and said dust lip (18; 31; 51, 52) is made of a material which is obtained by blending the conductive carbon at 1 weight part or less in the rubber at 100 weight part.
A graft copolymer, comprising: a conjugated diene rubber core; and a shell surrounding the rubber core, wherein the shell is obtained by graft-polymerizing a (meth)acrylic acid alkyl ester compound, an aromatic vinyl compound, and a vinyl cyanide compound, in the presence of an emulsifier containing a metal salt of sorbic acid in an amount of 35 to 80% by weight and alkenyl (C 12-18) succinic acid dipotassium salt in an amount of 20 to 65% by weight based on the total weight of the emulsifier, wherein, when the graft polymerization is performed, the metal salt of sorbic acid is added in an amount of 0.1 to 0.49 parts by weight based on 100 parts by weight of a total composition of the conjugated diene rubber core and the shell, wherein the graft copolymer is obtained by polymerizing 100 parts by weight of a monomer mixture containing 40 to 60 parts by weight of the conjugated diene rubber core, 25 to 50 parts by weight of the (meth)acrylic acid alkyl ester compound, 5 to 25 parts by weight of the aromatic vinyl compound, and 1 to 15 parts by weight of the vinyl cyanide compound under reaction conditions in which 0.1 to 0.49 parts by weight of the metal salt of sorbic acid are added. a conjugated diene rubber core; and a shell surrounding the rubber core, wherein the shell is obtained by graft-polymerizing a (meth)acrylic acid alkyl ester compound, an aromatic vinyl compound, and a vinyl cyanide compound, in the presence of an emulsifier containing a metal salt of sorbic acid in an amount of 35 to 80% by weight and alkenyl (C 12-18) succinic acid dipotassium salt in an amount of 20 to 65% by weight based on the total weight of the emulsifier, wherein, when the graft polymerization is performed, the metal salt of sorbic acid is added in an amount of 0.1 to 0.49 parts by weight based on 100 parts by weight of a total composition of the conjugated diene rubber core and the shell, wherein the graft copolymer is obtained by polymerizing 100 parts by weight of a monomer mixture containing 40 to 60 parts by weight of the conjugated diene rubber core, 25 to 50 parts by weight of the (meth)acrylic acid alkyl ester compound, 5 to 25 parts by weight of the aromatic vinyl compound, and 1 to 15 parts by weight of the vinyl cyanide compound under reaction conditions in which 0.1 to 0.49 parts by weight of the metal salt of sorbic acid are added.
An unshrouded rotor blade 24 comprising an aerofoil 28, said aerofoil 28 having a leading edge 34, a trailing edge 36, a pressure surface 30 and a suction surface 32, there being provided at a radially outer extremity of the aerofoil 28 a gutter 40 which is wider than the aerofoil 28 adjacent the trailing edge 36 thereof, characterised in that, the majority of the extra width is accommodated by an overhang on the pressure side 30 of the aerofoil 28.
A quick-change system for crawler wheels of an inspection crawler, in particular a sewer inspection and/or sewer cleaning crawler, comprising a shaft adapter and an interlocking device for axially interlocking a tyre retainer with the shaft adapter, wherein - the interlocking device comprises at least one interlocking member and an unlocking device cooperating with said at least one interlocking member, wherein said at least one interlocking member, when in an interlocking position, axially interlocks the tyre retainer with the shaft adapter, and - the unlocking device and the at least one interlocking member cooperate in such a manner that by moving the unlocking device the at least one interlocking member may be moved from the interlocking position to an unlocked position in which the tyre retainer is axially unlocked, characterised in that a lateral wall of the shaft adapter has at least one through hole provided therein in which the interlocking member is disposed in such a manner that it is movable relative to said through hole, wherein said interlocking member protrudes at least partially from said through hole when it is in the interlocking position and thus becomes axially interlocked with the tyre retainer. - the interlocking device comprises at least one interlocking member and an unlocking device cooperating with said at least one interlocking member, wherein said at least one interlocking member, when in an interlocking position, axially interlocks the tyre retainer with the shaft adapter, and - the unlocking device and the at least one interlocking member cooperate in such a manner that by moving the unlocking device the at least one interlocking member may be moved from the interlocking position to an unlocked position in which the tyre retainer is axially unlocked,
An elongated medical device (1, 11) for electro-anatomic mapping and suitable for intravascular insertion, said device comprising a flexible elongated body having a distal portion with a distal end and a proximal portion, and an electrode assembly located at the distal portion, the electrode assembly comprising - a plurality of at least x=4 support arms, wherein x is evenly divisible by the number 2, each support arm having a proximal end part, a distal end part and a main part between the proximal end part and the distal end part, the plurality of at least x=4 support arms comprising first and second neighboring support arms (81.1, 81.2) forming pairs of neighboring support arms, and - a plurality of electrodes arranged on the support arms for collecting electrophysiological data, the plurality of at least x=4 support arms being configured to have a first condition, where the plurality of at least x=4 support arms is arranged in a bundle, and a second condition, where the plurality of at least x=4 support arms is expanded, forming a basket type structure, characterized in that, each first and second neighboring support arms (81.1, 81.2) are combined at their proximal end parts to form united end parts, such that all pairs of neighboring support arms are united at their proximal end parts, and that each second and first neighboring support arms (81.2, 81.1) are combined at their distal end parts, to form united end parts, such that all pairs of neighboring support arms are united at their distal end parts, and wherein each support arm is combined at its distal end part with a different neighboring support arm than at its proximal end part. - a plurality of at least x=4 support arms, wherein x is evenly divisible by the number 2, each support arm having a proximal end part, a distal end part and a main part between the proximal end part and the distal end part, the plurality of at least x=4 support arms comprising first and second neighboring support arms (81.1, 81.2) forming pairs of neighboring support arms, and - a plurality of electrodes arranged on the support arms for collecting electrophysiological data, the plurality of at least x=4 support arms being configured to have a first condition, where the plurality of at least x=4 support arms is arranged in a bundle, and a second condition, where the plurality of at least x=4 support arms is expanded, forming a basket type structure, characterized in that, each first and second neighboring support arms (81.1, 81.2) are combined at their proximal end parts to form united end parts, such that all pairs of neighboring support arms are united at their proximal end parts, and that each second and first neighboring support arms (81.2, 81.1) are combined at their distal end parts, to form united end parts, such that all pairs of neighboring support arms are united at their distal end parts, and wherein each support arm is combined at its distal end part with a different neighboring support arm than at its proximal end part.
A solar heat collecting system comprising: a heat collector configured to heat a heat medium by a sunray; a heater configured to heat a heating target fluid by the heat medium; and a heat medium pipe configured to circulate the heat medium between the heat collector and the heater, and to include a first pipe portion extending from an exit (E 1) of the heat collector toward the heater and a second pipe portion extending from the heater toward the heat collector; the system further comprising: a temperature sensor configured to measure a temperature of the heat medium flowing from the exit (E 1) of the heat collector toward the heater, at a position located upstream of an initial bent portion of the first pipe portion, the initial bent portion being located most upstream among bent portions of the first pipe portion; and a controller configured to control heating of the heat medium in accordance with the temperature of the heat medium measured by the temperature sensor. a heat collector configured to heat a heat medium by a sunray; a heater configured to heat a heating target fluid by the heat medium; and a heat medium pipe configured to circulate the heat medium between the heat collector and the heater, and to include a first pipe portion extending from an exit (E 1) of the heat collector toward the heater and a second pipe portion extending from the heater toward the heat collector; the system further comprising: a temperature sensor configured to measure a temperature of the heat medium flowing from the exit (E 1) of the heat collector toward the heater, at a position located upstream of an initial bent portion of the first pipe portion, the initial bent portion being located most upstream among bent portions of the first pipe portion; and a controller configured to control heating of the heat medium in accordance with the temperature of the heat medium measured by the temperature sensor. a temperature sensor configured to measure a temperature of the heat medium flowing from the exit (E 1) of the heat collector toward the heater, at a position located upstream of an initial bent portion of the first pipe portion, the initial bent portion being located most upstream among bent portions of the first pipe portion; and a controller configured to control heating of the heat medium in accordance with the temperature of the heat medium measured by the temperature sensor.
A frame structure for a prosthetic aortic heart valve comprising: an annulus portion (60; 360) that is annular about a longitudinal axis and that is annularly collapsible and re-expandable; an aortic portion that is annular about the longitudinal axis and that is annularly collapsible and re-expandable, the aortic portion being spaced from the annulus portion in a first direction along the longitudinal axis; and a plurality of strut members for connecting the annulus portion to the aortic portion at a plurality of points that are spaced from one another in a direction that is annular of the aortic portion, characterized by the aortic portion including, at each of said points, a pair of arm members (228a, 228b) that begin at that point and that diverge from one another in the first direction with an included angle between the arm members of less than 90° until each arm member connects to an annularly adjacent arm member (228a, 228b) that started from another, annularly adjacent one of the points, the aortic portion including no other structure between annularly adjacent ones of the arm members that connect to one another and that start from different ones of the points. an annulus portion (60; 360) that is annular about a longitudinal axis and that is annularly collapsible and re-expandable; an aortic portion that is annular about the longitudinal axis and that is annularly collapsible and re-expandable, the aortic portion being spaced from the annulus portion in a first direction along the longitudinal axis; and a plurality of strut members for connecting the annulus portion to the aortic portion at a plurality of points that are spaced from one another in a direction that is annular of the aortic portion, characterized by the aortic portion including, at each of said points, a pair of arm members (228a, 228b) that begin at that point and that diverge from one another in the first direction with an included angle between the arm members of less than 90° until each arm member connects to an annularly adjacent arm member (228a, 228b) that started from another, annularly adjacent one of the points, the aortic portion including no other structure between annularly adjacent ones of the arm members that connect to one another and that start from different ones of the points. characterized by the aortic portion including, at each of said points, a pair of arm members (228a, 228b) that begin at that point and that diverge from one another in the first direction with an included angle between the arm members of less than 90° until each arm member connects to an annularly adjacent arm member (228a, 228b) that started from another, annularly adjacent one of the points, the aortic portion including no other structure between annularly adjacent ones of the arm members that connect to one another and that start from different ones of the points.
An in-medium monitoring system (108, 110) for monitoring material carried within a pipe, comprising: an acoustic device (210, 212) installed within the pipe and configured to at least generate a voltage signal indicative of changes in the material; a hardware unit including a detector module (216, 218) and a communication module, wherein the detector module includes a voltage to frequency converter configured to receive the voltage signal and output a modulated frequency signal that is modulated with data indicative of changes in the material extracted from the voltage signal, wherein the hardware unit further includes a log detection amplifier configured to receive the modulated frequency signal and to concurrently demodulate the modulated frequency signal in AM and FM modes; a switch (320; 420) connected to the acoustic detector for switching the voltage signal to the hardware unit; and a power source for the acoustic device, the hardware unit and the switch, wherein the hardware unit and power source are attached to the pipe. an acoustic device (210, 212) installed within the pipe and configured to at least generate a voltage signal indicative of changes in the material; a hardware unit including a detector module (216, 218) and a communication module, wherein the detector module includes a voltage to frequency converter configured to receive the voltage signal and output a modulated frequency signal that is modulated with data indicative of changes in the material extracted from the voltage signal, wherein the hardware unit further includes a log detection amplifier configured to receive the modulated frequency signal and to concurrently demodulate the modulated frequency signal in AM and FM modes; a switch (320; 420) connected to the acoustic detector for switching the voltage signal to the hardware unit; and a power source for the acoustic device, the hardware unit and the switch, wherein the hardware unit and power source are attached to the pipe.
Motorized valve consisting of a closable pipe, a shutter, a rotary electromagnetic actuator and a plastics overmolding material, said actuator being formed from a stator assembly and a rotor secured to a shaft, the shutter being positioned progressively by said actuator via the shaft and being capable of closing the pipe, the plastics overmolding material surrounding and being secured at least in part to the actuator and forming the pipe at least in part, the static sealing being produced by the plastics overmolding material that is common between the actuator and the pipe, said overmolding material being passed through by a passage for guiding the shaft connecting the shutter and the rotor, the shaft of the actuator carrying the valve, characterized in that the dynamic sealing of said passage is produced by the use of a single seal in contact with the shaft.
A measurement method of a stream of urine from a user during urination to identify a toilet user, the measuring method using a radar sensor and comprising at least the following steps: - emission by the radar sensor of at least one radar signal, in the direction of the urine stream, - reception by the radar sensor of a reflected radar signal, the received radar signal comprising reflections of the transmitted signal, the reflections being caused by at least the urine stream, - processing the received radar signal to determine at least one property relating to the urine stream, and - assigning the urine stream to one of a plurality of user profiles on the basis of the at least one property of the urine stream. - emission by the radar sensor of at least one radar signal, in the direction of the urine stream, - reception by the radar sensor of a reflected radar signal, the received radar signal comprising reflections of the transmitted signal, the reflections being caused by at least the urine stream, - processing the received radar signal to determine at least one property relating to the urine stream, and - assigning the urine stream to one of a plurality of user profiles on the basis of the at least one property of the urine stream.
An external charger system for an implantable medical device, the external charger system comprising: a circuit board; a primary charging coil mounted to a first side of the circuit board, wherein the primary charging coil, when energized, is configured to generate a magnetic field to be received at the implantable medical device; and a thermal diffuser within the primary charging coil, wherein the thermal diffuser is configured to conduct heat away from the primary charging coil; characterized in that the thermal diffuser is adhered to the first side of the circuit board. a circuit board; a primary charging coil mounted to a first side of the circuit board, wherein the primary charging coil, when energized, is configured to generate a magnetic field to be received at the implantable medical device; and a thermal diffuser within the primary charging coil, wherein the thermal diffuser is configured to conduct heat away from the primary charging coil;