mhurhangee/ep-ind-claims huggingface dataset:
Joining component for receiving and/or guiding a fluid, comprising: - a first partial shell having a first outer side, a first inner side and a first joining surface provided on the first inner side, - a second partial shell having a second outer side, a second inner side and a second joining surface (6 ') provided on the second inner side, wherein the first and the second partial shell (2, 3) on the first and second joining surface (6, 6') are interconnected via a connecting seam and form at least two channels for receiving and/or guiding the fluid, and at least two channels are separated from one another in an inner section by the connecting seam, and in the inner section a cavity extending along the connecting seam is provided, and in the first and/or second partial shell (2, 3) at least one opening for checking the quality of the weld seam between the first joining surface and the first outer side and/or the second joining surface and the second outer side is disposed, wherein the cavity is connected to at least one opening, so that when quality of the connecting seam deteriorates, the fluid leaks at least partially on the first and/or second outer side (10, 13). - a first partial shell having a first outer side, a first inner side and a first joining surface provided on the first inner side, - a second partial shell having a second outer side, a second inner side and a second joining surface (6 ') provided on the second inner side,
An emergency air spring assembly, comprising an upper cover plate, an air bag, an upper end plate and a lower end plate, wherein the periphery of the upper end plate is connected with the periphery of the lower end plate through the air bag; a sand clock elastomer is connected between the upper cover plate and the upper end plate; multiple steel springs are arranged between the upper cover plate and the upper end plate in the circumferential direction of the sand clock elastomer in a pressing mode.
A bezel assembly for mounting a video monitor onto a back of a passenger seat, the bezel assembly comprising: a bezel including an outer surface in which a recess is formed for receiving a video monitor, an inner side opposite the outer surface, a retaining lip extending outwardly from the inner side, and an internal rib connected to the inner side; at least one spring clip for attaching the retaining lip to a seat back frame; and at least one spring-loaded connector having a screw head engageable with a screw driver, for attaching the internal rib to the seat back frame; wherein the inner side of the bezel is contoured to engage the seat back frame such that when the inner side is brought into contact with the seat back frame and the spring clip, the spring clip holds the bezel to the seat back frame by spring force; wherein the bezel has a peripheral wall with an access hole, the internal rib is inward of the peripheral wall, characterised in that the spring-loaded connector is configured to be installed through the access hole and passed through aligned apertures (232, 234) through the internal rib, a seat back bracket, and overlapping portions of a spring retainer installed on the seat back bracket such that the spring-loaded connector is operable to be turned by the screw driver to secure a bottom of the bezel in place. a bezel including an outer surface in which a recess is formed for receiving a video monitor, an inner side opposite the outer surface, a retaining lip extending outwardly from the inner side, and an internal rib connected to the inner side; at least one spring clip for attaching the retaining lip to a seat back frame; and at least one spring-loaded connector having a screw head engageable with a screw driver, for attaching the internal rib to the seat back frame; wherein the inner side of the bezel is contoured to engage the seat back frame such that when the inner side is brought into contact with the seat back frame and the spring clip, the spring clip holds the bezel to the seat back frame by spring force; wherein the bezel has a peripheral wall with an access hole, the internal rib is inward of the peripheral wall, characterised in that the spring-loaded connector is configured to be installed through the access hole and passed through aligned apertures (232, 234) through the internal rib, a seat back bracket, and overlapping portions of a spring retainer installed on the seat back bracket such that the spring-loaded connector is operable to be turned by the screw driver to secure a bottom of the bezel in place.
A pharmaceutical composition for use in preventing or treating metastatic ovarian cancer, comprising a compound represented by Formula 1 below or a pharmaceutically acceptable salt thereof:
An electric taxi system for an aircraft comprising: an electric motor positionable on a landing gear assembly of the aircraft; and one or more selectively operable engaging members (111, 210, 211, 311,411,511), for selectively coupling the ETS with a wheel of the aircraft, the one or more engaging members being drivably coupled to the electric motor, and the one or more selectively operable engaging members each having a base member (138, 338, 438, 538) and a leading end (135, 335, 435, 536), wherein an axis (140, 354, 454) of each base member and an axis of each respective leading end are configured to be in straight-line alignment upon initial engagement of the engaging member with the wheel, and wherein the axes of the leading end and the base member are displaceable from a straight-line alignment responsively to lateral forces exerted on the leading end resulting from deflections of the wheel during taxiing of the aircraft. an electric motor positionable on a landing gear assembly of the aircraft; and one or more selectively operable engaging members (111, 210, 211, 311,411,511), for selectively coupling the ETS with a wheel of the aircraft, the one or more engaging members being drivably coupled to the electric motor, and the one or more selectively operable engaging members each having a base member (138, 338, 438, 538) and a leading end (135, 335, 435, 536), wherein an axis (140, 354, 454) of each base member and an axis of each respective leading end are configured to be in straight-line alignment upon initial engagement of the engaging member with the wheel, and wherein the axes of the leading end and the base member are displaceable from a straight-line alignment responsively to lateral forces exerted on the leading end resulting from deflections of the wheel during taxiing of the aircraft.
An apparatus configured for hepatic neuromodulation, for example hepatic denervation, wherein the apparatus is configured for delivering energy to disrupt neural communication along one or more nerves surrounding a hepatic artery and innervating the liver, the apparatus comprising: a neuromodulation catheter configured for percutaneous insertion and intravascular delivery to a location within a hepatic artery in a subject, the catheter having a proximal end and a distal end, the catheter being sufficiently flexible to navigate a tortuous vasculature of the hepatic artery, and the catheter further configured to deliver ablative radiofrequency energy to one or more nerves surrounding the hepatic artery and innervating the liver to disrupt neural communication, wherein the catheter comprises an expandable structure, wherein the catheter comprises a plurality of radiofrequency electrodes that are coupled to the expandable structure and that are spaced apart radially and/or along a length of the catheter, wherein the catheter is configured to cause the plurality of electrodes to be positioned so as to be in contact with an inner wall of the hepatic artery at multiple energy delivery locations or points within the hepatic artery, wherein the plurality of electrodes is configured to deliver a therapeutically effective amount of radiofrequency energy sufficient to ablate the one or more nerves surrounding the hepatic artery and innervating the liver, wherein the energy is within a frequency range of 50 kHz and 5 MHz, the energy has a voltage level of between 20 V and 100 V, wherein the plurality of radiofrequency electrodes comprise monopolar electrodes, and wherein the catheter comprises cooling elements. a neuromodulation catheter configured for percutaneous insertion and intravascular delivery to a location within a hepatic artery in a subject, the catheter having a proximal end and a distal end, the catheter being sufficiently flexible to navigate a tortuous vasculature of the hepatic artery, and the catheter further configured to deliver ablative radiofrequency energy to one or more nerves surrounding the hepatic artery and innervating the liver to disrupt neural communication, wherein the catheter comprises an expandable structure, wherein the catheter comprises a plurality of radiofrequency electrodes that are coupled to the expandable structure and that are spaced apart radially and/or along a length of the catheter, wherein the catheter is configured to cause the plurality of electrodes to be positioned so as to be in contact with an inner wall of the hepatic artery at multiple energy delivery locations or points within the hepatic artery, wherein the plurality of electrodes is configured to deliver a therapeutically effective amount of radiofrequency energy sufficient to ablate the one or more nerves surrounding the hepatic artery and innervating the liver, wherein the energy is within a frequency range of 50 kHz and 5 MHz, the energy has a voltage level of between 20 V and 100 V, wherein the plurality of radiofrequency electrodes comprise monopolar electrodes, and wherein the catheter comprises cooling elements.
an axial magnetic bearing, comprising a revolving shaft and an electromagnetic component, wherein the electromagnetic component is arranged around an outer periphery of the revolving shaft; a gap is formed between the electromagnetic component and the revolving shaft to adjust a position of the revolving shaft; the electromagnetic component comprises an iron core with a winding slot, and coils arranged in the winding slot; wherein, the magnetic bearing further comprises an axial protection mechanism, which is configured to prevent the revolving shaft from colliding with the electromagnetic component, further comprising a thrust plate; wherein the thrust plate is fixed on the revolving shaft; the protection mechanism is fixed on the electromagnetic component and arranged around an outer periphery of the thrust plate, characterised in that: the protection mechanism is fixed in the winding slot.
A heater assembly comprising: a substrate including two opposed end portions (20, 22) and a slot extending along the length of the substrate from one end portion (20, 22) to the other, the opposed end portions (20, 22) defining raised flanges (24, 26), and opposed chamfered surfaces (30, 32) extending along the slot and across the raised flanges (24, 26); a plurality of layers (40, 42, 48) thermally sprayed onto the substrate; characterized in that it comprises a protective cover secured to the opposed chamfered surfaces (30, 32) and the raised flanges (24, 26) of the substrate without covering the slot to enclose the plurality of thermally-sprayed layers (40, 42, 48) between the substrate and the protective cover to protect the thermally-sprayed layers (40, 42, 48) against moisture intrusion. a substrate including two opposed end portions (20, 22) and a slot extending along the length of the substrate from one end portion (20, 22) to the other, the opposed end portions (20, 22) defining raised flanges (24, 26), and opposed chamfered surfaces (30, 32) extending along the slot and across the raised flanges (24, 26); a plurality of layers (40, 42, 48) thermally sprayed onto the substrate; characterized in that it comprises a protective cover secured to the opposed chamfered surfaces (30, 32) and the raised flanges (24, 26) of the substrate without covering the slot to enclose the plurality of thermally-sprayed layers (40, 42, 48) between the substrate and the protective cover to protect the thermally-sprayed layers (40, 42, 48) against moisture intrusion.
System of a curved flange connection and a robot to move a support platform along a series of nuts pre-screwed on bolts arranged in the curved flange connection, which bolts project from the nuts pre-screwed in substantially a nut plane by a projection length, which robot comprises a drive to move the robot along the curved flange connection, which drive comprises at least one drive element and holding means both connected to the support platform, wherein the at least one drive element comprises a motor built to drive engage means, that engage into a space between neighbouring bolts of the curved flange connection to move the robot, characterized in that the holding means comprise at least one pair of guiding rails (16, 17) connected to the support platform in a distance from each other of more than the diameter of the bolts and less than the width across flat of the nuts and projecting more than the projection length from the support platform.
A data transmission method, comprising: sending (S101, S301), in a first transmission time interval, TTI, to a scheduled node, a scheduling indication of transmitting data by using a preset spectrum resource, wherein the preset spectrum resource has the following characteristics: a use status of the preset spectrum resource needs to be sensed before the preset spectrum resource is occupied, and an occupation time for which the preset spectrum resource is occupied each time is limited; characterized by determining that the scheduled node can transmit data in a second TTI according to the scheduling indication by using the preset spectrum resource, comprising determining that a notification message sent by the scheduled node is received in a third TTI by using a designated spectrum resource, wherein the second TTI is a TTI used to send the data that is transmitted by the scheduled node according to the scheduling indication, the second TTI is a TTI that is after the first TTI in a time sequence and that has a preset fixed time sequence relationship with the first TTI, the third TTI is a TTI whose time sequence is not after the time sequence of the second TTI, the notification message is used to indicate that the scheduled node can occupy the preset spectrum resource in the second TTI, and the designated spectrum resource is a spectrum resource allocated to and used by a wireless communications system at which the scheduled node is located; and determining (S103, S307) that the data that is transmitted in the second TTI by using the preset spectrum resource is data sent by the scheduled node. sending (S101, S301), in a first transmission time interval, TTI, to a scheduled node, a scheduling indication of transmitting data by using a preset spectrum resource, wherein the preset spectrum resource has the following characteristics: a use status of the preset spectrum resource needs to be sensed before the preset spectrum resource is occupied, and an occupation time for which the preset spectrum resource is occupied each time is limited; characterized by determining that the scheduled node can transmit data in a second TTI according to the scheduling indication by using the preset spectrum resource, comprising determining that a notification message sent by the scheduled node is received in a third TTI by using a designated spectrum resource, wherein the second TTI is a TTI used to send the data that is transmitted by the scheduled node according to the scheduling indication, the second TTI is a TTI that is after the first TTI in a time sequence and that has a preset fixed time sequence relationship with the first TTI, the third TTI is a TTI whose time sequence is not after the time sequence of the second TTI, the notification message is used to indicate that the scheduled node can occupy the preset spectrum resource in the second TTI, and the designated spectrum resource is a spectrum resource allocated to and used by a wireless communications system at which the scheduled node is located; and determining (S103, S307) that the data that is transmitted in the second TTI by using the preset spectrum resource is data sent by the scheduled node.
A bit interleaving method for interleaving bits of a codeword generated based on a repeat-accumulate quasi-cyclic low-density parity check coding scheme, the bit interleaving method comprising: a parity interleaving step of permuting parity bits of the codeword such that the parity section of the codeword has a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule defines the reordering of the bits of the codeword, such that the Q bits in each of N'=N-X cyclic blocks among the N cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words, where X is the remainder of N divided by M, and X cyclic blocks among the N cyclic blocks other than said N' cyclic blocks include a cyclic block corresponding to the parity section of the codeword. a parity interleaving step of permuting parity bits of the codeword such that the parity section of the codeword has a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule defines the reordering of the bits of the codeword, such that the Q bits in each of N'=N-X cyclic blocks among the N cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words, where X is the remainder of N divided by M, and X cyclic blocks among the N cyclic blocks other than said N' cyclic blocks include a cyclic block corresponding to the parity section of the codeword.
Fluid management system comprising a machine-internal fluid line which can be connected to a fluid inlet for supplying a flushing fluid and a fluid outlet for discharging the flushing fluid, a shut-off device in the fluid line, which divides the fluid line into a first and a second fluid line portion (15, 16), a first fluid conveying means in the first fluid line portion arranged upstream of the shut-off device during operation of the first fluid conveying means, a second fluid conveying means in the fluid line portion arranged downstream of the shut-off device during operation of the second fluid conveying means, and a control device for actuating the shut-off device, the first fluid conveying means and the second fluid conveying means, wherein the control device is configured, in order to increase a pressure in the first fluid line portion relative to a pressure in the second fluid line portion, to actuate the first fluid conveying means for conveying fluid in the direction of the shut-off device, and is configured, in order to lower a pressure in a second fluid line portion relative to the pressure in the first fluid line portion downstream of the shut-off device, to actuate the second fluid conveying means for conveying fluid away from the shut-off device, and wherein the control device is configured to open the shut-off agent at least once at increased pressure in the first fluid portion and at lowered pressure in the second fluid portion. a machine-internal fluid line which can be connected to a fluid inlet for supplying a flushing fluid and a fluid outlet for discharging the flushing fluid, a shut-off device in the fluid line, which divides the fluid line into a first and a second fluid line portion (15, 16), a first fluid conveying means in the first fluid line portion arranged upstream of the shut-off device during operation of the first fluid conveying means, a second fluid conveying means in the fluid line portion arranged downstream of the shut-off device during operation of the second fluid conveying means, and a control device for actuating the shut-off device, the first fluid conveying means and the second fluid conveying means, wherein the control device is configured, in order to increase a pressure in the first fluid line portion relative to a pressure in the second fluid line portion, to actuate the first fluid conveying means for conveying fluid in the direction of the shut-off device, and is configured, in order to lower a pressure in a second fluid line portion relative to the pressure in the first fluid line portion downstream of the shut-off device, to actuate the second fluid conveying means for conveying fluid away from the shut-off device, and wherein the control device is configured to open the shut-off agent at least once at increased pressure in the first fluid portion and at lowered pressure in the second fluid portion.
Electronic element, in particular a driver for a lamp, comprising: a housing having two opposite openings, a circuit board for receiving electronic components, which is disposed in the housing and extends at least partly between the openings of the housing, and a casting compound, which fills a defined subregion between the openings of the housing, wherein the subregion is spatially delimited toward the openings by a respective partition wall, which together with the housing delimits the subregion in a substantially peripherally closed manner, wherein at least one of the partition walls is configured as a sub-circuit board, and wherein at least the sub-circuit board is at least partially received laterally in a groove of the housing. a housing having two opposite openings, a circuit board for receiving electronic components, which is disposed in the housing and extends at least partly between the openings of the housing, and a casting compound, which fills a defined subregion between the openings of the housing, wherein the subregion is spatially delimited toward the openings by a respective partition wall, which together with the housing delimits the subregion in a substantially peripherally closed manner, wherein at least one of the partition walls is configured as a sub-circuit board, and wherein at least the sub-circuit board is at least partially received laterally in a groove of the housing.