mhurhangee/ep-ind-claims huggingface dataset:
An intraluminal guiding device comprising: an expandable guiding member having a proximal and a distal opening (12, 11), and an intermediate conduit having an first longitudinal axis located between said proximal and distal openings (12, 11) and an alignment feature (15, 17a, 17b) which defines a lumen having a second longitudinal axis wherein said first and second longitudinal axes are substantially parallel; a release wire having a proximal end and a distal end and an intermediate longitudinal portion between the proximal and the distal ends wherein at least some portion of the intermediate portion of the release wire slidably passes through the lumen of the alignment feature; and an inner member having an axial stop, the inner member being adapted to receive and engage the release wire while concurrently the axial stop of the inner member imparts axial movement to the expandable guiding member upon movement of the inner member. an expandable guiding member having a proximal and a distal opening (12, 11), and an intermediate conduit having an first longitudinal axis located between said proximal and distal openings (12, 11) and an alignment feature (15, 17a, 17b) which defines a lumen having a second longitudinal axis wherein said first and second longitudinal axes are substantially parallel; a release wire having a proximal end and a distal end and an intermediate longitudinal portion between the proximal and the distal ends wherein at least some portion of the intermediate portion of the release wire slidably passes through the lumen of the alignment feature; and an inner member having an axial stop, the inner member being adapted to receive and engage the release wire while concurrently the axial stop of the inner member imparts axial movement to the expandable guiding member upon movement of the inner member.
A compacting and injection mold for a fiber preform for use in fabricating a turbine engine part out of composite material, the mold being characterized in that it comprises a shell forming a trough that is to receive the fiber preform and that is closed by substantially plane bottom and top covers (104, 106), compacting blocks (108 to 118) arranged inside the trough each having a surface (108a to 118a) pressing normally against a surface (12a to 20a) of the fiber preform that is to be compacted, and closure blocks (120 to 126) arranged inside the trough, each closure block having a surface (120b to 126b) pressing normally against a surface (112b to 118b) of a compacting block and not having a surface in contact with the fiber preform.
An ohmically modulated rechargeable battery comprising: at least one negative terminal and at least one positive terminal for operating the battery at one level of internal resistance (R 1) over a temperature range of the battery between a first temperature (T 1) and a second temperature (T 2); at least one high resistance terminal electrically connected to at least one resistor sheet within a cell of the battery or between cells of the battery for operating the battery at a second level of internal resistance (R 2) either below T 1 or above T 2; and a switch that activates R 2 when the temperature of the battery is either below T 1 or above T 2; wherein the value of R 2 at about 2 °C below T 1 is a factor between and including 2 to 500 the value of R 1 at T 1 or the value of R 2 at about 2 °C above T 2 is a factor between and including 2 to 500 the value of R 1 at T 2.
An auto-injector comprising: a housing, including an exit aperture at a distal end of the auto-injector and a longitudinal axis; wherein the housing is adapted to receive a syringe having a discharge nozzle, the syringe being moveable in the housing on actuation of the auto-injector along the longitudinal axis from a retracted position in which the discharge nozzle is contained within the housing and an extended position in which the discharge nozzle of the syringe extends from the housing through the exit aperture at the distal end of the auto-injector; a sliding component which extends, when in a first position, from the aperture, and is movable into the housing into a second, retracted, position; and a removable contact element adapted to be removably attached to the distal end of the sliding component, characterised in that the removable contact element comprises a cap configured to act as a suction element to secure the device to the skin. a housing, including an exit aperture at a distal end of the auto-injector and a longitudinal axis; wherein the housing is adapted to receive a syringe having a discharge nozzle, the syringe being moveable in the housing on actuation of the auto-injector along the longitudinal axis from a retracted position in which the discharge nozzle is contained within the housing and an extended position in which the discharge nozzle of the syringe extends from the housing through the exit aperture at the distal end of the auto-injector; a sliding component which extends, when in a first position, from the aperture, and is movable into the housing into a second, retracted, position; and a removable contact element adapted to be removably attached to the distal end of the sliding component, characterised in that the removable contact element comprises a cap configured to act as a suction element to secure the device to the skin.
Mobile operating machine, comprising a motor vehicle provided with at least one internal combustion motor which cooperates with a movement unit to move said motor vehicle, at least one articulated arm able to deliver concrete and at least one pumping unit configured to pump the concrete to said articulated arm, said mobile operating machine comprising a plurality of hydraulic pumps (15, 19, 21, 28), wherein at least one of either the articulated arm or the pumping unit is connected to a respective hydraulic pump (21, 19) configured to pump a working fluid and determine the drive of said articulated arm and/or said pumping unit, further comprising one single electromechanical machine connected to an electric accumulator, to said respective hydraulic pump (21, 19) and to said internal combustion motor, wherein said electromechanical machine assumes at least a first operating condition in which it converts the mechanical energy of said internal combustion motor into electric energy to be accumulated in said electric accumulator, such that said electromechanical machine functions as an electric power generator, and a second operating condition in which it converts the electric energy of said electric accumulator into mechanical energy to drive the hydraulic pump (21, 19), such that said electromechanical machine functions as an electric motor, said hydraulic pumps (15, 19, 21, 28) being selectively connected to said electromechanical machine by means of a mechanical coupler.
Powder comprising low molecular weight PTFE having a melt viscosity of 1 × 10 2 to 7 × 10 5 Pa·s at 380°C, having an average particle size of 1.0-20 um, having a specific surface area of 0.5-5.0 m 2 /g or 7.0-20 m 2 /g and containing ≥ 30 carboxyl groups at ends of the molecule chain per 10 6 carbon atoms in the main chain, the powder having a total content of C 8-14 -perfluorocarboxylic acids and salts thereof of less than 25 ppb; wherein the melt viscosity is a value determined by heating a 2 g sample at 380°C for five minutes in advance and then keeping this sample at this temperature under a load of 0.7 MPa using a flow tester and a 2φ-8L die in conformity with ASTM D1238; the average particle size is equivalent to the particle size corresponding to 50% of the cumulative volume in the particle size distribution determined using a laser diffraction particle size distribution analyzer at a dispersive pressure of 1.0 bar without cascade impaction; and the specific surface area is determined by the BET method using a surface analyzer using a gas mixture of 30% nitrogen and 70% helium as carrier gas and liquid nitrogen for cooling. wherein the melt viscosity is a value determined by heating a 2 g sample at 380°C for five minutes in advance and then keeping this sample at this temperature under a load of 0.7 MPa using a flow tester and a 2φ-8L die in conformity with ASTM D1238; the average particle size is equivalent to the particle size corresponding to 50% of the cumulative volume in the particle size distribution determined using a laser diffraction particle size distribution analyzer at a dispersive pressure of 1.0 bar without cascade impaction; and the specific surface area is determined by the BET method using a surface analyzer using a gas mixture of 30% nitrogen and 70% helium as carrier gas and liquid nitrogen for cooling.
An electrostatic ink composition comprising: a) chargeable particles comprising a resin; b) a charge director comprising a sulfosuccinate salt of the general formula M'A m, wherein M' is a metal, m is the valence of M', and A is an ion of the general formula: [R 3 -O-C CH 2 CH(SO 3)C -O-R 4] - wherein each of R 3 and R 4 is an alkyl group; c) an optionally substituted naphthalene-sulfonate moiety; and d) a liquid carrier. a) chargeable particles comprising a resin; b) a charge director comprising a sulfosuccinate salt of the general formula M'A m, wherein M' is a metal, m is the valence of M', and A is an ion of the general formula: [R 3 -O-C CH 2 CH(SO 3)C -O-R 4] - wherein each of R 3 and R 4 is an alkyl group; c) an optionally substituted naphthalene-sulfonate moiety; and d) a liquid carrier.
A porous composite metal oxide, comprising: a mixture of first ultrafine particles containing alumina and second ultrafine particles containing zirconia, wherein the first ultrafine particles and the second ultrafine particles are uniformly dispersed in such a way as to satisfy a condition that standard deviations of content ratios (% by mass) of all metal elements contained in the porous composite metal oxide at 0. 1% by mass or more are each 10 or less, the standard deviations being obtained by measuring content ratios of the metal elements at 100 measurement points within a minute analysis region of 20 nm square by energy dispersive X-ray spectroscopy using a scanning transmission electron microscope equipped with a spherical aberration correction function. a mixture of first ultrafine particles containing alumina and second ultrafine particles containing zirconia, wherein the first ultrafine particles and the second ultrafine particles are uniformly dispersed in such a way as to satisfy a condition that standard deviations of content ratios (% by mass) of all metal elements contained in the porous composite metal oxide at 0. 1% by mass or more are each 10 or less, the standard deviations being obtained by measuring content ratios of the metal elements at 100 measurement points within a minute analysis region of 20 nm square by energy dispersive X-ray spectroscopy using a scanning transmission electron microscope equipped with a spherical aberration correction function.
A method of monitoring downhole conditions in a borehole penetrating a subsurface formation, comprising: disposing a string of connected tubulars in the borehole, the string of tubulars forming a downhole electromagnetic network that provides an electromagnetic signal path between a plurality of sensors in the string of connected tubulars; receiving sensor data through the downhole electromagnetic network from a first sensor of the plurality of sensors; and characterised by receiving sensor data through the downhole electromagnetic network from a second sensor of the plurality of sensors axially spaced apart in the string of connected tubulars from the first sensor; comparing the first sensor data to the second sensor data; making an inference about a downhole condition from the sensor data; and controlling the downhole condition based on the comparison by selectively adjusting at least one parameter affecting the downhole condition based on the inference, wherein selectively adjusting the at least one parameter comprises selectively adjusting the at least one parameter until the downhole condition matches a target downhole condition within a set tolerance. disposing a string of connected tubulars in the borehole, the string of tubulars forming a downhole electromagnetic network that provides an electromagnetic signal path between a plurality of sensors in the string of connected tubulars; receiving sensor data through the downhole electromagnetic network from a first sensor of the plurality of sensors; and characterised by receiving sensor data through the downhole electromagnetic network from a second sensor of the plurality of sensors axially spaced apart in the string of connected tubulars from the first sensor; comparing the first sensor data to the second sensor data; making an inference about a downhole condition from the sensor data; and controlling the downhole condition based on the comparison by selectively adjusting at least one parameter affecting the downhole condition based on the inference, wherein selectively adjusting the at least one parameter comprises selectively adjusting the at least one parameter until the downhole condition matches a target downhole condition within a set tolerance.
Solid cosmetic composition in the form of a pressed powder, comprising, in a physiologically acceptable medium, at least: - an oily phase greater than or equal to 20% by weight relative to the total weight of the composition, wherein the said oily phase comprises a total content of non-volatile oil(s) greater than or equal to 20% by weight relative to the total weight of the composition, - a pulverulent phase greater than or equal to 40% by weight relative to the total weight of the composition, comprising at least one spherical filler and at least one lamellar filler, the spherical filler(s) and the lamellar filler(s) being present in a respective total weight content such that the weight ratio of the spherical filler(s) to the lamellar filler(s) is greater than or equal to 0.01 and preferably between 0.02 and 15; - at least one hydrophobic film-forming polymer; the composition being obtained by means of a process comprising the steps of: - mixing the fatty phase, the pulverulent phase, the hydrophobic film-forming polymer(s) and at least one additional volatile solvent in order to prepare a suspension, - forming the composition therefrom, by pressing; - removing, preferably completely the additional volatile solvent(s), by a suctioning step. - an oily phase greater than or equal to 20% by weight relative to the total weight of the composition, wherein the said oily phase comprises a total content of non-volatile oil(s) greater than or equal to 20% by weight relative to the total weight of the composition, - a pulverulent phase greater than or equal to 40% by weight relative to the total weight of the composition, comprising at least one spherical filler and at least one lamellar filler, the spherical filler(s) and the lamellar filler(s) being present in a respective total weight content such that the weight ratio of the spherical filler(s) to the lamellar filler(s) is greater than or equal to 0.01 and preferably between 0.02 and 15; - at least one hydrophobic film-forming polymer; - mixing the fatty phase, the pulverulent phase, the hydrophobic film-forming polymer(s) and at least one additional volatile solvent in order to prepare a suspension, - forming the composition therefrom, by pressing; - removing, preferably completely the additional volatile solvent(s), by a suctioning step.
A method for receiving streaming service data in a user equipment, UE, in a mobile communication network, the method comprising: receiving a second internet protocol, IP, address from a second access router, AR, if the UE is handed over to the second AR upon detecting that the UE moves from a first AR to the second AR while receiving streaming service data from the first AR through a first transmission control protocol, TCP, session established with a corresponding node, CN, based on a first IP address through the first AR; establishing a second TCP session with the CN based on the second IP address through the second AR; awaiting until a reception of a data unit is completed if the reception of the data unit is not completed, wherein the data unit is included in the streaming service data which the UE has received before the handover has been completed; switching from the first TCP session to the second TCP session upon detecting the completion of the reception of the data unit; and receiving the streaming service data from the CN through the second TCP session. receiving a second internet protocol, IP, address from a second access router, AR, if the UE is handed over to the second AR upon detecting that the UE moves from a first AR to the second AR while receiving streaming service data from the first AR through a first transmission control protocol, TCP, session established with a corresponding node, CN, based on a first IP address through the first AR; establishing a second TCP session with the CN based on the second IP address through the second AR; awaiting until a reception of a data unit is completed if the reception of the data unit is not completed, wherein the data unit is included in the streaming service data which the UE has received before the handover has been completed; switching from the first TCP session to the second TCP session upon detecting the completion of the reception of the data unit; and receiving the streaming service data from the CN through the second TCP session.
One or more hardware-based non-transitory computer-readable memory devices storing computer-executable instructions which, upon execution by one or more processors in a top of rack, TOR, switch, cause the TOR switch to: receive a stream of data packets at the TOR switch, in which the data packet stream has an associated line rate, wherein the data packets are captured at the line rate; at the TOR switch, identify the received data packets to a network interface controller, NIC, that is disposed in a computing device having a memory for processing using remote direct memory access, RDMA, wherein identifying the received data packets to the network interface controller comprises manipulating the received data packets to transform them into RDMA data packets, wherein manipulating the received data packets comprises adding an RDMA header to one or more of the received data packets; from the TOR switch, transmit the identified data packets to the computing device so that the NIC writes the data to the memory using RDMA for packet capture at the line rate. receive a stream of data packets at the TOR switch, in which the data packet stream has an associated line rate, wherein the data packets are captured at the line rate; at the TOR switch, identify the received data packets to a network interface controller, NIC, that is disposed in a computing device having a memory for processing using remote direct memory access, RDMA, wherein identifying the received data packets to the network interface controller comprises manipulating the received data packets to transform them into RDMA data packets, wherein manipulating the received data packets comprises adding an RDMA header to one or more of the received data packets; from the TOR switch, transmit the identified data packets to the computing device so that the NIC writes the data to the memory using RDMA for packet capture at the line rate.
Lens with an extended range of focus, wherein the lens consists of a solid, transparent material and has two manufactured optical surfaces (2, 4), wherein the lens has a focal power distribution F G, characterized in that the focal power distribution F G of the lens, in relation to a plane perpendicular to the optical axis, changes as a function of the radial height r and of the azimuth angle phi of the aperture between a base value of the focal power F L not equal to zero and a maximum value F Smax not equal to zero and hence results in the focal power distribution F G (r, phi) = F L + F S (r, phi), with a spiral focal power component F S r phi = F Smax r ∗ w phi, where F Smax (r) depends nonlinearly on the radius and w(phi) is a factor for the azimuthal focal power component with the spiral profile, which is described by the formula w phi = ∑ i = 1 M I i exp − a i phi − w i 2 for the addition of focal power at the azimuth angle phi, which takes values from zero to 2π, and w i are the peak positions in the angular distribution function; I i are intensity values of the individual peaks with I i >0; a i >0 are damping coefficients for the respective peak positions and i is a counter and M≥i is a final value.
A loading mechanism, including a first roller assembly comprising at least one roller having a longitudinal axis; a second roller assembly comprising at least one roller having a longitudinal axis; at least one mounting configured to pivotally engage with the first roller assembly and second roller assembly so as to allow the orientation of the longitudinal axis of said at least one roller of the first roller assembly to change and to allow the orientation of the longitudinal axis of said at least one roller of the second roller assembly to change; and, a drive mechanism, wherein the drive mechanism comprises: a hydraulic drive motor connected to the at least one roller of the first roller assembly, and a second hydraulic drive motor connected to at least one roller of the second roller assembly a hydraulic pump connected to the hydraulic drive motors, wherein operation of the hydraulic pump causes the drive motors to rotate and thereby rotate the rollers of the first and second roller assemblies (2, 3) about their longitudinal axis to move an object, wherein as the weight of the object applies pressure to the roller of at least one of the first and second roller assemblies (2, 3) the at least one mounting allows said rollers to move so as to change the angle between the longitudinal axis of the rollers of the first and second roller assemblies (2, 3). a hydraulic drive motor connected to the at least one roller of the first roller assembly, and a second hydraulic drive motor connected to at least one roller of the second roller assembly a hydraulic pump connected to the hydraulic drive motors, wherein operation of the hydraulic pump causes the drive motors to rotate and thereby rotate the rollers of the first and second roller assemblies (2, 3) about their longitudinal axis to move an object, wherein as the weight of the object applies pressure to the roller of at least one of the first and second roller assemblies (2, 3) the at least one mounting allows said rollers to move so as to change the angle between the longitudinal axis of the rollers of the first and second roller assemblies (2, 3).