mhurhangee/ep-ind-claims huggingface dataset:
A beverage preparation machine for preparing a beverage from a food substance contained in a capsule by injection of a fluid into said capsule, said machine comprising: - a capsule holder for holding a capsule, - a fluid conduction system comprising a fluid reservoir, a fluid pump, optionally a fluid heater, said reservoir, pump and heater being connected by fluid pipes, - a brewing head having an aperture for receiving said capsule holder, and an injection support connected to the fluid conduction system, - an injection plate supported by said support, said injection plate comprising an upper surface connected to the fluid conduction system through said support, said injection plate further comprising a fluid injection element located in the lower surface of said injection plate, such that said injection element is able to inject fluid into the capsule by piercing through a flexible injection wall of the capsule, said injection plate comprises at least one channel independent from the fluid conducting channel that conveys water from the fluid system of the machine to the needle, said channel being suitable for circulating fluid at least from the lower surface towards the upper surface of said injection plate, said channel further comprising at least one piercing element having a base attached to said injection plate and an apex directed towards the lower surface of said injection plate, said apex being located inside said channel, or said apex protruding outside of said channel at a distance from the lower surface of the injection plate comprised between 1 μm and 2mm, preferably comprised between 100 μm and 1mm, more preferably comprised between 200 μm and 500 μm, characterized in that said piercing element comprises a base attached to the internal surface of the channel, said base having a cross section inferior to the corresponding cross section of said channel along at least one radial direction. - a capsule holder for holding a capsule, - a fluid conduction system comprising a fluid reservoir, a fluid pump, optionally a fluid heater, said reservoir, pump and heater being connected by fluid pipes, - a brewing head having an aperture for receiving said capsule holder, and an injection support connected to the fluid conduction system, - an injection plate supported by said support, said injection plate comprising an upper surface connected to the fluid conduction system through said support, said injection plate further comprising a fluid injection element located in the lower surface of said injection plate, such that said injection element is able to inject fluid into the capsule by piercing through a flexible injection wall of the capsule,
An atomic sensor device, the device comprising: a sensor body, the sensor body enclosing an atomic sensor; a getter container coupled to an opening in the sensor body, wherein a first opening in the getter container is coupled to the opening in the sensor body; the getter container further characterized by: a second opening located on the getter container, wherein gas within the sensor body can pass through the second opening; a getter enclosed within the getter container, the getter coating surfaces of the getter container, such that gas within the sensor body can enter the getter container and contact the getter; a first fill tube, the first fill tube having a first tube end and a second tube end, wherein the first tube end is connected to the second opening. a sensor body, the sensor body enclosing an atomic sensor; a getter container coupled to an opening in the sensor body, wherein a first opening in the getter container is coupled to the opening in the sensor body; the getter container further characterized by: a second opening located on the getter container, wherein gas within the sensor body can pass through the second opening; a getter enclosed within the getter container, the getter coating surfaces of the getter container, such that gas within the sensor body can enter the getter container and contact the getter; a first fill tube, the first fill tube having a first tube end and a second tube end, wherein the first tube end is connected to the second opening.
A Stirling engine assembly comprising a mounting bracket, a burner attached to the mounting bracket, a Stirling engine attached to the mounting bracket, the engine having a head which is positioned, in use, within the burner, an annular sealing member to seal an annular gap between the burner and the Stirling engine, and a coolant channel surrounding the Stirling engine positioned to cool the sealing member; characterised in that an annular lip (33, 71) extends from a lower region of the coolant channel, wherein a lower portion of the sealing member seals with respect to the engine and an upper portion of the sealing member is fitted around the annular lip and seals with respect to the burner.
Stator for an electric machine, comprising - a large number of pins (11, 12, 13, 14, 21, 22, 23, 24, 31, 32, 33, 34) which are arranged in at least two concentric circles; - an interface (10, 20, 30) having at least one contact area (19, 29, 39) which is connected to two electrically conductive legs (10a, 10b, 20a, 20b, 30a, 30b) and is supported by the legs - in order to allow a fixed point for connection of the phase conductors of an inverter, - wherein the legs (10a, 20a, 30a, 10b, 20b, 30b) are each connected to at least one pin (11, 12, 13, 14, 21, 22, 23, 24, 31, 32, 33, 34) in different concentric circles, - wherein each leg (10a, 20a, 30a, 10b, 20b, 30b) has a bend (10c, 10d, 20c, 30c, 30d) in the direction of the other leg, wherein each bend (10c, 10d, 20c, 30c, 30d) is substantially 90 degrees and the contact area (19, 29, 39) is located between the bends (10c, 10d, 20c, 30c, 30d), - characterized in that at least one leg (20b, 30b) has a twist (25, 35) between the pin and the contact area (29, 39). - a large number of pins (11, 12, 13, 14, 21, 22, 23, 24, 31, 32, 33, 34) which are arranged in at least two concentric circles; - an interface (10, 20, 30) having at least one contact area (19, 29, 39) which is connected to two electrically conductive legs (10a, 10b, 20a, 20b, 30a, 30b) and is supported by the legs - in order to allow a fixed point for connection of the phase conductors of an inverter, - wherein the legs (10a, 20a, 30a, 10b, 20b, 30b) are each connected to at least one pin (11, 12, 13, 14, 21, 22, 23, 24, 31, 32, 33, 34) in different concentric circles, - wherein each leg (10a, 20a, 30a, 10b, 20b, 30b) has a bend (10c, 10d, 20c, 30c, 30d) in the direction of the other leg, wherein each bend (10c, 10d, 20c, 30c, 30d) is substantially 90 degrees and the contact area (19, 29, 39) is located between the bends (10c, 10d, 20c, 30c, 30d), - characterized in that at least one leg (20b, 30b) has a twist (25, 35) between the pin and the contact area (29, 39).
Method for the proactive regulation of the energy flows in an electrical supply network of an automation installation (2, 16) with a number of connecting devices (6, 8, 10, 12) which are connected to the supply network, wherein a plurality of these connecting devices have an electric motor which acts either as a generator or as an electric drive, depending on its operating mode, characterized in that the connecting devices (6, 8, 10, 12) exchange information with one another relating to their energy requirement or their energy supply, in that the connecting devices (6, 8, 10, 12) exchange information on the expected variation with time in their energy requirement or their energy supply, and in that the connecting devices (6, 8, 10, 12) exchange energy with one another on the basis of this information, wherein the information is formed as broadcast messages, in particular according to the PROFINET standard, and wherein the connecting devices (6, 8, 10, 12) act as energy consumers (6, 10, 12), energy producers (8, 10, 12) or energy stores, and wherein the energy flows are regulated in such a way that the energy requirement of the energy consumers (6, 10, 12) is covered primarily by the energy supply of the energy producers (8, 10, 12) in that the energy supply of the energy producer (8, 10, 12) is fed directly to the energy consumer (6, 10, 12).
A sweeper roller for film production having a spirally grooved surface, characterized in that the proportion of the area of the spirally grooved part to the surface area of the sweeper roller is 30% or less, and the width of the spiral groove measured in the axis direction of the sweeper roller is 25 mm or more, wherein the proportion of the area of the spirally grooved part to the surface of the sweeper roller is calculated as follows; in the case where the grooves are aligned substantially in parallel and at regular intervals: the machining width of grooves B / the machining pitch of grooves P × 100 (%), in the case where grooves cross each other or they are provided at irregular intervals as in the axis-direction central region of the sweeper roller: the proportion of the length of the grooved part measured in the rotation direction of the sweeper roller to the circumference of the surface of the sweeper roller, wherein the proportion of the area of the spirally grooved part to the surface of the sweeper roller is determined by taking measurements of the proportion at least at five points on the surface of the sweeper roller and averaging them. the machining width of grooves B / the machining pitch of grooves P × 100 (%), in the case where grooves cross each other or they are provided at irregular intervals as in the axis-direction central region of the sweeper roller: the proportion of the length of the grooved part measured in the rotation direction of the sweeper roller to the circumference of the surface of the sweeper roller, wherein the proportion of the area of the spirally grooved part to the surface of the sweeper roller is determined by taking measurements of the proportion at least at five points on the surface of the sweeper roller and averaging them. the proportion of the length of the grooved part measured in the rotation direction of the sweeper roller to the circumference of the surface of the sweeper roller, wherein the proportion of the area of the spirally grooved part to the surface of the sweeper roller is determined by taking measurements of the proportion at least at five points on the surface of the sweeper roller and averaging them.
A method of enabling elastic optical network operation comprising: standardizing, by laying down a spectral range and granularity, a plurality of optical data units, ODU, of fixed data payload size and different data rates, wherein each of the plurality of ODU are associated with a spectral efficiency and physical layer, PHY, implementation; wherein the data rates corresponding to the plurality of ODU are constructed by a plurality of spectral efficiencies. standardizing, by laying down a spectral range and granularity, a plurality of optical data units, ODU, of fixed data payload size and different data rates, wherein each of the plurality of ODU are associated with a spectral efficiency and physical layer, PHY, implementation; wherein the data rates corresponding to the plurality of ODU are constructed by a plurality of spectral efficiencies.
A tuning fork vibration viscometer comprising: a pair of vibrators to be dunked in a sample; an electromagnetic drive for vibrating the vibrators; an amplitude value changing means (18, 12A) for outputting a target amplitude value of the vibrators; and a displacement detection sensor for measuring an amplitude of the vibrators, and performing feedback control with means configured to control a driving current applied to the electromagnetic drive so that an output value of the displacement detection sensor corresponds to the target amplitude value and measuring viscosity of the sample based on a value of the driving current, characterized in that the tuning fork vibration viscometer further comprises a gain control means configured to set a feedback gain in the feedback control high at first, in a state of a specific target amplitude value with respect to a sample having a specific viscosity, to reduce the gain until a limiting point that is just before a measured viscosity value starts oscillating is found, to define the gain at the limiting point as an optimum feedback gain, so as to perform a measurement of the viscosity by using the optimum feedback gain, and to perform the measurement every time the target amplitude value is changed. a pair of vibrators to be dunked in a sample; an electromagnetic drive for vibrating the vibrators; an amplitude value changing means (18, 12A) for outputting a target amplitude value of the vibrators; and a displacement detection sensor for measuring an amplitude of the vibrators, and performing feedback control with means configured to control a driving current applied to the electromagnetic drive so that an output value of the displacement detection sensor corresponds to the target amplitude value and measuring viscosity of the sample based on a value of the driving current, characterized in that the tuning fork vibration viscometer further comprises a gain control means configured to set a feedback gain in the feedback control high at first, in a state of a specific target amplitude value with respect to a sample having a specific viscosity, to reduce the gain until a limiting point that is just before a measured viscosity value starts oscillating is found, to define the gain at the limiting point as an optimum feedback gain, so as to perform a measurement of the viscosity by using the optimum feedback gain, and to perform the measurement every time the target amplitude value is changed.
A rope clamp (10,20) for clamping one or more ropes comprising a first clamping member (11, 21) having a first clamping face (12,22) for being set against one or more ropes to be clamped; a second clamping member (13,23) having a second clamping face (14,24) for being set against one or more ropes to be clamped; said clamping faces (12,14;22,24) defining between them a gap for receiving one or more ropes, the clamping members (11,21) being relatively movable towards each other such that the gap is narrowed for clamping one or more ropes between the clamping faces thereof, and means (30, 31) for moving the clamping members towards each other such that the gap is narrowed, characterized in that the first clamping member (11,21) and/or the second clamping member (13,23) comprises a metallic face part (15,25) forming the clamping face (12,22;14,24) of the clamping member in question; and a metallic body part (16,26) on the back side of the face part (15,25); and an elastic intermediate part (17,27) made of elastic material between the body part (16, 26) and the face part (15, 25) for elastically transmitting force between the body part (16, 26) and the face part (15, 25).
A method for manufacturing a non-oriented electrical steel sheet, the method comprising: a step of obtaining a hot-rolled steel sheet by performing hot rolling on a steel material, the steel material having a chemical composition that contains, by mass%, 0.0100% or less of C, 1.50 to 4.00% of Si, 0.0001 to 1.000% of sol.Al, 0.0100% or less of S, 0.0100% or less of N, 2.50 to 5.00% of Mn, Ni, Co, Pt, Pb, Cu, and Au in total, 0.000 to 0.400% of Sn, 0.000 to 0.400% of Sb, 0.000 to 0.400% of P, and 0.0000 to 0.0100% of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd in total with a remainder of Fe and impurities, and satisfies the following Expression in a case where a Mn content is denoted by (Mn), a Ni content is denoted by (Ni), a Co content is denoted by (Co), a Pt content is denoted by (Pt), a Pb content is denoted by (Pb), a Cu content is denoted by (Cu), an Au content is denoted by (Au), a Si content is denoted by (Si), and a sol.Al content is denoted by (sol.Al); a step of performing first cold rolling on the hot-rolled steel sheet; and a step of performing first annealing in a temperature range lower than an Ac1 temperature after the first cold rolling, wherein a final pass of finish rolling during the hot rolling is performed in a temperature range equal to or higher than an Ar1 temperature, and cooling of which an average cooling rate is in a range of 50 to 500°C/sec is started in 0.1 sec from completion of rolling of the final pass of the finish rolling and is performed up to a temperature range higher than 250°C and equal to or lower than 700°C. Mn + Ni + Co + Pt + Pb + Cu + Au − Si + sol.Al > 0.00 % a step of obtaining a hot-rolled steel sheet by performing hot rolling on a steel material, the steel material having a chemical composition that contains, by mass%, 0.0100% or less of C, 1.50 to 4.00% of Si, 0.0001 to 1.000% of sol.Al, 0.0100% or less of S, 0.0100% or less of N, 2.50 to 5.00% of Mn, Ni, Co, Pt, Pb, Cu, and Au in total, 0.000 to 0.400% of Sn, 0.000 to 0.400% of Sb, 0.000 to 0.400% of P, and 0.0000 to 0.0100% of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd in total with a remainder of Fe and impurities, and satisfies the following Expression in a case where a Mn content is denoted by (Mn), a Ni content is denoted by (Ni), a Co content is denoted by (Co), a Pt content is denoted by (Pt), a Pb content is denoted by (Pb), a Cu content is denoted by (Cu), an Au content is denoted by (Au), a Si content is denoted by (Si), and a sol.Al content is denoted by (sol.Al); a step of performing first cold rolling on the hot-rolled steel sheet; and a step of performing first annealing in a temperature range lower than an Ac1 temperature after the first cold rolling, wherein a final pass of finish rolling during the hot rolling is performed in a temperature range equal to or higher than an Ar1 temperature, and cooling of which an average cooling rate is in a range of 50 to 500°C/sec is started in 0.1 sec from completion of rolling of the final pass of the finish rolling and is performed up to a temperature range higher than 250°C and equal to or lower than 700°C. Mn + Ni + Co + Pt + Pb + Cu + Au − Si + sol.Al > 0.00 %
A node of a cellular network, comprising: - an interface configured to communicate with a terminal attached to the cellular network on a radio link, - at least one processor configured to negotiate, with the terminal and via the interface, a capability of sending at least one control message including a command prompting the terminal to abort sending of payload messages; and to receive, from the terminal and via the interface, a plurality of payload messages, each one of the plurality of payload messages including a data packet encoded according to the same redundancy version, wherein the at least one processor is configured to decode the data packet based on the plurality of payload messages, wherein, based on the negotiation indicating that the capability of sending the at least one control message is present, the at least one processor is configured to selectively send, to the terminal and via the interface, the at least one control message based on said decoding being successful, the at least one control message including the command prompting the terminal to abort sending of payload messages including the data packet. - an interface configured to communicate with a terminal attached to the cellular network on a radio link, - at least one processor configured to negotiate, with the terminal and via the interface, a capability of sending at least one control message including a command prompting the terminal to abort sending of payload messages; and to receive, from the terminal and via the interface, a plurality of payload messages, each one of the plurality of payload messages including a data packet encoded according to the same redundancy version, to negotiate, with the terminal and via the interface, a capability of sending at least one control message including a command prompting the terminal to abort sending of payload messages; and to receive, from the terminal and via the interface, a plurality of payload messages, each one of the plurality of payload messages including a data packet encoded according to the same redundancy version, wherein the at least one processor is configured to decode the data packet based on the plurality of payload messages, wherein, based on the negotiation indicating that the capability of sending the at least one control message is present, the at least one processor is configured to selectively send, to the terminal and via the interface, the at least one control message based on said decoding being successful, the at least one control message including the command prompting the terminal to abort sending of payload messages including the data packet.
Secukinumab for use in treating psoriasis, wherein a patient in need thereof is to be administered five weekly doses of 150 mg - 300 mg of secukinumab; and wherein thereafter the patient is to be administered 150 mg - 300 mg of secukinumab monthly.
A sensor device adapted to be connected to an in-vehicle device and to be driven by power supplied (Vcc) to a power supply terminal of the sensor device from the in-vehicle device, the sensor device comprising: a physical quantity detection unit (2, 16) adapted to output a detection signal (Vsen); a sensor output terminal for outputting an output voltage (Vout); and an operational amplifier configured to receive said detection signal (Vsen) of the physical quantity detection unit (2, 16) and to output said output signal (Vout) to the sensor output terminal, a regulator, and a resistance circuit (5, 6) having a plurality of resistors, wherein the regulator is adapted to receive the supplied voltage (Vcc) from the in-vehicle device and to output a regulated voltage (Vreg) lower than the supplied voltage (Vcc); wherein the operational amplifier is driven with said regulated voltage (Vreg) output from the regulator, which is lower than the supplied voltage (Vcc), and wherein the resistance circuit (5, 6) is provided between the sensor output terminal and an inversion input of the operational amplifier and is adapted to receive the output signal (Vout) from the operational amplifier and to output a voltage lower than said output signal (Vout), and wherein the voltage output (Vout) of the output terminal is divided by the resistance elements (5, 6), wherein said divided voltage is received in the inversion input of the operational amplifier to apply negative feedback to the operational amplifier. a physical quantity detection unit (2, 16) adapted to output a detection signal (Vsen); a sensor output terminal for outputting an output voltage (Vout); and an operational amplifier configured to receive said detection signal (Vsen) of the physical quantity detection unit (2, 16) and to output said output signal (Vout) to the sensor output terminal, a regulator, and a resistance circuit (5, 6) having a plurality of resistors, wherein the regulator is adapted to receive the supplied voltage (Vcc) from the in-vehicle device and to output a regulated voltage (Vreg) lower than the supplied voltage (Vcc); wherein the operational amplifier is driven with said regulated voltage (Vreg) output from the regulator, which is lower than the supplied voltage (Vcc), and wherein the resistance circuit (5, 6) is provided between the sensor output terminal and an inversion input of the operational amplifier and is adapted to receive the output signal (Vout) from the operational amplifier and to output a voltage lower than said output signal (Vout), and wherein the voltage output (Vout) of the output terminal is divided by the resistance elements (5, 6), wherein said divided voltage is received in the inversion input of the operational amplifier to apply negative feedback to the operational amplifier.