mhurhangee/ep-ind-claims huggingface dataset:
Watch case comprising a middle to which are attached a crystal and a back delimiting an internal volume in which is arranged a horological movement intended to drive indicating members, said case further comprising a mechanism for actuating an indicator capable of moving in rotation and housed inside the internal volume of the case, said actuation mechanism including a bezel capable of moving in rotation and intended to be handled by a user, and a transmission pinion arranged such that it meshes with the bezel and the indicator, the respective axes of rotation of the bezel, transmission pinion and indicator being parallel to one another, the case being characterised in that the transmission pinion comprises an upper toothing and a lower toothing, extending coaxially to one another such that the upper toothing meshes with a toothing of the bezel and such that the lower toothing meshes with a toothing of the indicator.
A compound designated herein as imetelstat or a pharmaceutically acceptable salt thereof for use in the treatment of cancer in a subject, wherein the subject is being treated sequentially or simultaneously with gemcitabine and imtelstat, respectively.
Cell culture device, that comprises: - an outer tubular body having an upper end and a lower end, the upper end comprising an opening and the lower end being closed by a membrane, having an inner surface and an outer surface, which can be cultivated with cells, the cell culture device further comprising: - a complementary tubular body, whose inner diameter fits, at least partly, onto the outer diameter of the lower end of the outer tubular body, and - a hanger component having an upper end and a lower end; wherein from the upper end extend sideways at least one flange and the diameter of the outer surface of the hanger component and the diameter of the inner surface of the outer tubular body are designed in a way that the friction between these elements (1, 3) provides a leak-proof connection enabling cell cultivation on both surfaces (4a, 4b) of the membrane, - wherein said outer tubular body in a first step is connectable to the complementary tubular body to form a standing insert for a first cell cultivation, and in a second step wherein the outer tubular body is disengageable from the complementary tubular body and attachable to the hanger component for a second cell cultivation, characterized in that the outer surface of the hanger component further comprises notches (6a, 6b, 6c) which are complementary and fit into protrusions of the outer tubular body.. - an outer tubular body having an upper end and a lower end, the upper end comprising an opening and the lower end being closed by a membrane, having an inner surface and an outer surface, which can be cultivated with cells, - a complementary tubular body, whose inner diameter fits, at least partly, onto the outer diameter of the lower end of the outer tubular body, and - a hanger component having an upper end and a lower end; wherein from the upper end extend sideways at least one flange and the diameter of the outer surface of the hanger component and the diameter of the inner surface of the outer tubular body are designed in a way that the friction between these elements (1, 3) provides a leak-proof connection enabling cell cultivation on both surfaces (4a, 4b) of the membrane, - wherein said outer tubular body in a first step is connectable to the complementary tubular body to form a standing insert for a first cell cultivation, and in a second step wherein the outer tubular body is disengageable from the complementary tubular body and attachable to the hanger component for a second cell cultivation,
A physiological status sensing device (40, 40', 40") for sensing a physiological status of a patient and minimizing an amount of interference generated during a magnetic resonance scan by a magnetic resonance system, the device comprising: a first, active sensor (64, 64', 64") located such that it can sense the physiological status and will experience MR scan related interference during an MR scan, and arranged to output a first signal (80, 80', 80") during the scan having a physiological status component and an interference component; a second, non-active sensor (70, 70', 70") located closely adjacent to the first sensor (64, 64', 64") such that it will experience substantially the same MR scan related interference as the first sensor (64, 64', 64") during an MR scan, and arranged to output a second signal (82, 82', 82") during the scan having the interference component; and a circuit (50, 84, 110, 110', 116, 116') which subtractively operates on the first (80, 80', 80") and second signals to cancel the interference component wherein the first, active sensor includes a first pressure transducer arranged to sense a pressure related to the physiological status and the second, non-active sensor includes a second pressure transducer arranged so as to be prevented from sensing pressure. a first, active sensor (64, 64', 64") located such that it can sense the physiological status and will experience MR scan related interference during an MR scan, and arranged to output a first signal (80, 80', 80") during the scan having a physiological status component and an interference component; a second, non-active sensor (70, 70', 70") located closely adjacent to the first sensor (64, 64', 64") such that it will experience substantially the same MR scan related interference as the first sensor (64, 64', 64") during an MR scan, and arranged to output a second signal (82, 82', 82") during the scan having the interference component; and a circuit (50, 84, 110, 110', 116, 116') which subtractively operates on the first (80, 80', 80") and second signals to cancel the interference component wherein the first, active sensor includes a first pressure transducer arranged to sense a pressure related to the physiological status and the second, non-active sensor includes a second pressure transducer arranged so as to be prevented from sensing pressure.
Screw machine for the processing of plastic melts, comprising - a housing, - at least one housing bore (14, 15) formed in the housing, - a feed opening leading into the at least one housing bore (14, 15) for feeding a plastic melt, - at least one treatment element shaft (16, 17) which -- is arranged in the associated housing bore (14, 15) and is drivable for rotation about an associated axis of rotation (18, 19), and -- has, for the treatment of the plastic melt, a plurality of treatment elements (29 to 37, 29' to 37') which, seen in a direction of conveyance of the plastic melt, are non-rotationally arranged one behind the other on at least one associated shaft (27, 28), - at least one shaft bearing (47, 48) arranged upstream of the feed opening in relation to the direction of conveyance for mounting the at least one shaft (27, 28) in the housing, characterized in that the at least one shaft bearing (47, 48) comprises a bearing gap (53, 54) configured in the shape of a ring, and that the at least one shaft bearing (47, 48) is configured hydrodynamically by means of the plastic melt to be processed. - a housing, - at least one housing bore (14, 15) formed in the housing, - a feed opening leading into the at least one housing bore (14, 15) for feeding a plastic melt, - at least one treatment element shaft (16, 17) which -- is arranged in the associated housing bore (14, 15) and is drivable for rotation about an associated axis of rotation (18, 19), and -- has, for the treatment of the plastic melt, a plurality of treatment elements (29 to 37, 29' to 37') which, seen in a direction of conveyance of the plastic melt, are non-rotationally arranged one behind the other on at least one associated shaft (27, 28), -- is arranged in the associated housing bore (14, 15) and is drivable for rotation about an associated axis of rotation (18, 19), and -- has, for the treatment of the plastic melt, a plurality of treatment elements (29 to 37, 29' to 37') which, seen in a direction of conveyance of the plastic melt, are non-rotationally arranged one behind the other on at least one associated shaft (27, 28), - at least one shaft bearing (47, 48) arranged upstream of the feed opening in relation to the direction of conveyance for mounting the at least one shaft (27, 28) in the housing, characterized in that the at least one shaft bearing (47, 48) comprises a bearing gap (53, 54) configured in the shape of a ring, and that the at least one shaft bearing (47, 48) is configured hydrodynamically by means of the plastic melt to be processed.
A gas turbine combustor comprising: a combustion tube which has an inner wall surface faced to a combustion zone and an outer wall surface, wherein a plurality of cooling passages are formed between the inner wall surface and the outer wall surface, said plurality of cooling passages having a plurality of main coolant supply openings (24;24a) on said inner wall surface; a guide configured to guide coolant supplied, in operation, from said plurality of main coolant supply openings (24;24a) into a direction along said inner wall surface; a plurality of auxiliary coolant supply openings (28;28a) configured to supply coolant from a region outside said outer wall surface to a gap between said inner wall surface and said guide such that coolant which is introduced from said plurality of auxiliary coolant supply openings (28;28a) is guided to the direction along said inner wall surface by said guide; wherein said plurality of main coolant supply openings (24;24a) and said plurality of auxiliary coolant supply openings (28;28a) are formed at positions such that the main coolant supply openings (24;24a) and the auxiliary coolant supply openings (28;28a) are shifted with respect to each other in the direction of flow of the coolant guided by said guide, characterized in that, spacers are configured to keep said gap at a predetermined width and wherein said spacers are arranged between said main coolant supply openings (24;24a) and said auxiliary coolant supply openings (28;28a) such that the coolant can pass through between said spacers. a combustion tube which has an inner wall surface faced to a combustion zone and an outer wall surface, wherein a plurality of cooling passages are formed between the inner wall surface and the outer wall surface, said plurality of cooling passages having a plurality of main coolant supply openings (24;24a) on said inner wall surface; a guide configured to guide coolant supplied, in operation, from said plurality of main coolant supply openings (24;24a) into a direction along said inner wall surface; a plurality of auxiliary coolant supply openings (28;28a) configured to supply coolant from a region outside said outer wall surface to a gap between said inner wall surface and said guide such that coolant which is introduced from said plurality of auxiliary coolant supply openings (28;28a) is guided to the direction along said inner wall surface by said guide; wherein said plurality of main coolant supply openings (24;24a) and said plurality of auxiliary coolant supply openings (28;28a) are formed at positions such that the main coolant supply openings (24;24a) and the auxiliary coolant supply openings (28;28a) are shifted with respect to each other in the direction of flow of the coolant guided by said guide, characterized in that, spacers are configured to keep said gap at a predetermined width and wherein said spacers are arranged between said main coolant supply openings (24;24a) and said auxiliary coolant supply openings (28;28a) such that the coolant can pass through between said spacers.
Method for network edge computing, network edge computing also being referred to as MEC, i.e. mobile edge computing, the method comprising a learning phase and an operational phase, wherein in the learning phase: a) computational task requests are transmitted by the mobile terminals to a network edge host, referred to as MEH; b) generative models of input data, capable of generating input data for the computational tasks which they may be asked to perform by way of request, are trained on the basis of input data provided by selected requests (410, 420) from the computational task requests, said input data being real data; and the parameters of these generative models are stored at the network edge; and during the operational phase: c) when a mobile terminal transmits a computational task request to said MEH, the latter verifies whether the input data of this computational task are already modelled by a generative model and, d) if yes, the MEH checks whether a result of the computational task on the basis of synthetic input data issued by the generative model identified during the verification performed in step c) is already available in a cache memory, said result then being read from this memory by the MEH; e) if not, the MEH generates synthesis input data using the generative model associated with the computational task and calculates a result on the basis of said synthesis input data; f) in both cases, the MEH transmits said result to the mobile terminal. a) computational task requests are transmitted by the mobile terminals to a network edge host, referred to as MEH; b) generative models of input data, capable of generating input data for the computational tasks which they may be asked to perform by way of request, are trained on the basis of input data provided by selected requests (410, 420) from the computational task requests, said input data being real data; and the parameters of these generative models are stored at the network edge; and during the operational phase: c) when a mobile terminal transmits a computational task request to said MEH, the latter verifies whether the input data of this computational task are already modelled by a generative model and, d) if yes, the MEH checks whether a result of the computational task on the basis of synthetic input data issued by the generative model identified during the verification performed in step c) is already available in a cache memory, said result then being read from this memory by the MEH; e) if not, the MEH generates synthesis input data using the generative model associated with the computational task and calculates a result on the basis of said synthesis input data; f) in both cases, the MEH transmits said result to the mobile terminal.
A terminal apparatus configured to communicate with a base station apparatus using a cell of unlicensed band, the terminal apparatus comprising: a channel measurement unit configured to perform an uplink Listen-Before-Talk, LBT, procedure; a reception unit configured to receive, in a physical downlink shared channel, a message including a random access response grant; and a transmission processing unit configured to transmit a message 3 in physical uplink shared channel, PUSCH, in a Licensed Assisted Access, LAA, cell, based on the random access response grant, wherein the random access response grant includes a field indicating at least an uplink LBT procedure type for the PUSCH transmission, the channel measurement unit is configured to perform the uplink LBT procedure indicated by the field, one or more than one subframes are allocated for transmission of the message 3, and the transmission processing unit is configured to initiate an uplink LBT procedure for transmission of a random access preamble in a case where it is determined that a channel is busy in the one or all of the more than one subframes. a channel measurement unit configured to perform an uplink Listen-Before-Talk, LBT, procedure; a reception unit configured to receive, in a physical downlink shared channel, a message including a random access response grant; and a transmission processing unit configured to transmit a message 3 in physical uplink shared channel, PUSCH, in a Licensed Assisted Access, LAA, cell, based on the random access response grant, wherein the random access response grant includes a field indicating at least an uplink LBT procedure type for the PUSCH transmission, the channel measurement unit is configured to perform the uplink LBT procedure indicated by the field, one or more than one subframes are allocated for transmission of the message 3, and the transmission processing unit is configured to initiate an uplink LBT procedure for transmission of a random access preamble in a case where it is determined that a channel is busy in the one or all of the more than one subframes.
A bearing element for being arranged in a bearing receptacle of a bearing assembly comprising a bearing element body embodied as a sliding bearing element and a sensor for measuring at least one operating parameter of the bearing element, as well as a telemetry device, wherein the bearing element body is connected to the telemetry device by means of a connecting element, wherein the telemetry device is line-connected to the sensor by means of electric conductors, characterized in that the connecting element has a strip-shaped or bow-shaped design and that the electric conductors are arranged on the connecting element.
A power tool comprising a cooling arrangement, the power tool, comprising - a housing of the power tool, - electronics including at least one circuit board and at least one electronic component, wherein the at least one circuit board and/or the at least one electronic component comprises at least one heat conductive area, wherein the at least one heat conductive area is heat conductively connected to the housing of the power tool, wherein a heat conductive insulator is configured to prevent electricity from conducting to the housing, and wherein the housing of the power tool comprises a shaft arranged between a handle and a motor powered tool, characterized in that the power tool comprises a dust suction arrangement, wherein the dust suction arrangement comprises the shaft, which is arranged to work as a suction pipe to extract dust produced during operation of the tool, and the suction pipe is arranged to cool down the power tool. - a housing of the power tool, - electronics including at least one circuit board and at least one electronic component, wherein the at least one circuit board and/or the at least one electronic component comprises at least one heat conductive area, wherein the at least one heat conductive area is heat conductively connected to the housing of the power tool, wherein a heat conductive insulator is configured to prevent electricity from conducting to the housing, and wherein the housing of the power tool comprises a shaft arranged between a handle and a motor powered tool, characterized in that the power tool comprises a dust suction arrangement, wherein the dust suction arrangement comprises the shaft, which is arranged to work as a suction pipe to extract dust produced during operation of the tool, and the suction pipe is arranged to cool down the power tool.
Aqueous dispersion of resin, characterized in that it comprises at least one polyester resin, in particular an alkyd resin, which resin: - is based on at least one fatty acid - has a zero oil length (0%) or an oil length between 0 and 35%, preferably greater than 0 and up to 25%, more preferentially up to 15% - has a weight ratio of oxidizable fatty acids (monoacids) relative to the overall fatty acids of 0 or more than 0 and ranging up to 1 - is based on an acid component comprising, in addition to said fatty acid, from 30% to 85%, preferably from 35% to 75%, more preferentially from 40% to 75% and even more preferentially from 45% to 75% by weight, relative to the total weight of said resin, of rosin and/or rosin derivatives bearing at least one carboxylic acid function, or in that said dispersion comprises at least one organic binder composition comprising at least one resin as defined above. - is based on at least one fatty acid - has a zero oil length (0%) or an oil length between 0 and 35%, preferably greater than 0 and up to 25%, more preferentially up to 15% - has a weight ratio of oxidizable fatty acids (monoacids) relative to the overall fatty acids of 0 or more than 0 and ranging up to 1 - is based on an acid component comprising, in addition to said fatty acid, from 30% to 85%, preferably from 35% to 75%, more preferentially from 40% to 75% and even more preferentially from 45% to 75% by weight, relative to the total weight of said resin, of rosin and/or rosin derivatives bearing at least one carboxylic acid function,
A turbine engine comprising: an engine core; an inner cowl radially surrounding the engine core; an outer cowl radially surrounding the inner cowl and spaced from the inner cowl to form an annular passage between the inner and outer cowls that defines a nozzle; at least one control surface provided on the inner cowl and movable between a retracted position, where the nozzle has a first cross-sectional area, and an extended position where the nozzle has a second cross-sectional area that is less than the first cross-sectional area; and an actuator operably coupled to the at least one control surface and configured to move the at least one control surface to control the cross-sectional area of the nozzle; wherein the at least one control surface comprises a first end that is hingedly mounted to the inner cowl and a second end, opposite the first end, that moves away from the inner cowl when the at least one control surface moves from the retracted position to the extended position; wherein the first end is forward of the second end; the turbine engine further comprising a seal coupling the second end to the inner cowl. an engine core; an inner cowl radially surrounding the engine core; an outer cowl radially surrounding the inner cowl and spaced from the inner cowl to form an annular passage between the inner and outer cowls that defines a nozzle; at least one control surface provided on the inner cowl and movable between a retracted position, where the nozzle has a first cross-sectional area, and an extended position where the nozzle has a second cross-sectional area that is less than the first cross-sectional area; and an actuator operably coupled to the at least one control surface and configured to move the at least one control surface to control the cross-sectional area of the nozzle; wherein the at least one control surface comprises a first end that is hingedly mounted to the inner cowl and a second end, opposite the first end, that moves away from the inner cowl when the at least one control surface moves from the retracted position to the extended position; wherein the first end is forward of the second end; the turbine engine further comprising a seal coupling the second end to the inner cowl.
A low thermal expansion alloy comprising, in mass%: C: 0.015% or less; Si: 0.10% or less; Mn: 0.15% or less; Ni: 35.0% to 37.0%; Co: less than 2.0%; and Ni + 0.8Co: 35.0% to 37.0%, with the balance being Fe and inevitable impurities, wherein the low thermal expansion alloy has solidification structure with a secondary dendrite arm spacing of 5 μm or less, an average thermal expansion coefficient α in a temperature range between 100°C and -70°C falls within a range of 0 ± 0.2 ppm/°C, and an Ms point is -196°C or lower, wherein the average thermal expansion coefficient α and the Ms point are determined as disclosed in the description. C: 0.015% or less; Si: 0.10% or less; Mn: 0.15% or less; Ni: 35.0% to 37.0%; Co: less than 2.0%; and Ni + 0.8Co: 35.0% to 37.0%, with the balance being Fe and inevitable impurities, wherein the low thermal expansion alloy has solidification structure with a secondary dendrite arm spacing of 5 μm or less, an average thermal expansion coefficient α in a temperature range between 100°C and -70°C falls within a range of 0 ± 0.2 ppm/°C, and an Ms point is -196°C or lower,