mhurhangee/ep-ind-claims huggingface dataset:
A torsional vibration damper at least comprising one input part and one output part having a common axis of rotation extending along an axial direction, wherein the input part and the output part can be rotated in a limited manner relative to one another with the transmission of a torque along a circumferential direction, wherein the torsional vibration damper has at least one ramp system (7, 8) with rolling elements, via which a relative rotation of the input part and output part can be converted into a shifting along the axial direction of at least one component of the torsional vibration damper, wherein the torsional vibration damper has a plurality of energy storage elements, wherein all energy storage elements of the torsional vibration damper are arranged distributed around the circumferential direction and each extend along the axial direction and can be elastically deformed in the axial direction, wherein a first group of rolling elements is arranged on a first diameter in a first ramp system and a second group of rolling elements is arranged on a second diameter, which differs from the first diameter, in a second ramp system, characterised in that both ramp systems (7, 8) have tapered rollers or conical spherical rollers as rolling elements.
A shoe press belt which is an independent piece with a shape of an endless loop, runnable in a shoe press through a long nip between at least one roll and a press shoe, the shoe press belt comprising: a base which is of an elastomeric heat-resistant material arranged to withstand a temperature of more than 80 °C; a plurality of polymeric support yarns (16, 18) arranged in at least one yarn layer inside the base; and a first surface on the side of the press shoe, and a second surface on the side of a fibre web; wherein at least some of the support yarns (16, 18) are heat-resistant polymer yarns, the glass transition temperature Tg of said heat-resistant polymer yarn being at least 80 °C; characterized in that the polymer structure of the material comprises a naphthalene group, the structure of said heat-resistant polymer yarn being of completely aromatic liquid crystalline polymer, poly(4-hydroxybenzoic acid-co-6-hydroxy-2-naphthoic acid), and the force required for a 2-% stretch of said heat-resistant polymer yarn being at least 10 cN/tex at 20 °C. a base which is of an elastomeric heat-resistant material arranged to withstand a temperature of more than 80 °C; a plurality of polymeric support yarns (16, 18) arranged in at least one yarn layer inside the base; and a first surface on the side of the press shoe, and a second surface on the side of a fibre web; wherein at least some of the support yarns (16, 18) are heat-resistant polymer yarns, the glass transition temperature Tg of said heat-resistant polymer yarn being at least 80 °C; characterized in that the polymer structure of the material comprises a naphthalene group, the structure of said heat-resistant polymer yarn being of completely aromatic liquid crystalline polymer, poly(4-hydroxybenzoic acid-co-6-hydroxy-2-naphthoic acid), and the force required for a 2-% stretch of said heat-resistant polymer yarn being at least 10 cN/tex at 20 °C.
A system for additive manufacturing, comprising: a first dispensing system comprising a reservoir of at least one elastomeric material a secondary dispensing system comprising at least one proportioning device and at least one control valve, the secondary dispensing system configured to receive the at least one elastomeric material from the first dispensing system in predetermined quantities; and a deposition apparatus configured to receive and mix the at least one elastomeric material from the second dispensing system prior to depositing the at least one elastomeric material; a deposition substrate on which the at least one elastomeric material is deposited, said deposition substrate arranged to move in a first direction as the deposition apparatus deposits the at least one elastomeric material; wherein the elastomeric material is a liquid silicone material comprising two parts, which can be cured to form a solid silicone structure, and the secondary dispensing system is arranged to create material blends comprising a part A and a part B of the two parts wherein the deposition apparatus or the deposition substrate translates in a different direction to the first direction as the deposition apparatus deposits the at least one elastomeric material onto the deposition substrate, and wherein the deposition substrate is a cylindrical or conical mandrel configured to rotate and translate along a horizontal direction relative to the deposition apparatus. a first dispensing system comprising a reservoir of at least one elastomeric material a secondary dispensing system comprising at least one proportioning device and at least one control valve, the secondary dispensing system configured to receive the at least one elastomeric material from the first dispensing system in predetermined quantities; and a deposition apparatus configured to receive and mix the at least one elastomeric material from the second dispensing system prior to depositing the at least one elastomeric material; a deposition substrate on which the at least one elastomeric material is deposited, said deposition substrate arranged to move in a first direction as the deposition apparatus deposits the at least one elastomeric material; wherein the elastomeric material is a liquid silicone material comprising two parts, which can be cured to form a solid silicone structure, and the secondary dispensing system is arranged to create material blends comprising a part A and a part B of the two parts wherein the deposition apparatus or the deposition substrate translates in a different direction to the first direction as the deposition apparatus deposits the at least one elastomeric material onto the deposition substrate, and wherein the deposition substrate is a cylindrical or conical mandrel configured to rotate and translate along a horizontal direction relative to the deposition apparatus.
A thermal expansion joint, comprising: a bottom portion configured to extend between a support structure and a trailing edge of a heat shield assembly, the support structure being proximate to a heat source; a side portion, wherein a side portion top surface has a first wear surface; and an overlapping portion coupled to the bottom portion, and configured to extend from a flange portion of the heat shield assembly towards the side portion, the overlapping portion overlaying and biased against the side portion to enable thermal expansion of the bottom portion, during heating, towards the flange portion and sliding of the overlapping portion along the side portion top surface to accommodate the thermal expansion, the overlapping portion being pre-formed to exert a compression bias against the side portion, such that the overlapping portion is sealingly engaged with the side portion to form a fluid tight seal, wherein an overlapping portion bottom surface has a second wear surface, the first wear surface and second wear surface are oppositely positioned with each other, such that the first wear surface mates with and slides against the second wear surface during thermal expansion, wherein the first wear surface comprises a first layer of wear tolerant material applied to the first wear surface and the second wear surface comprises a second layer of wear tolerant material applied to the second wear surface, the wear tolerant material applied to help minimize wear and facilitate movement between the overlapping portion and the side portion. a bottom portion configured to extend between a support structure and a trailing edge of a heat shield assembly, the support structure being proximate to a heat source; a side portion, wherein a side portion top surface has a first wear surface; and an overlapping portion coupled to the bottom portion, and configured to extend from a flange portion of the heat shield assembly towards the side portion, the overlapping portion overlaying and biased against the side portion to enable thermal expansion of the bottom portion, during heating, towards the flange portion and sliding of the overlapping portion along the side portion top surface to accommodate the thermal expansion, the overlapping portion being pre-formed to exert a compression bias against the side portion, such that the overlapping portion is sealingly engaged with the side portion to form a fluid tight seal, wherein an overlapping portion bottom surface has a second wear surface, the first wear surface and second wear surface are oppositely positioned with each other, such that the first wear surface mates with and slides against the second wear surface during thermal expansion, wherein the first wear surface comprises a first layer of wear tolerant material applied to the first wear surface and the second wear surface comprises a second layer of wear tolerant material applied to the second wear surface, the wear tolerant material applied to help minimize wear and facilitate movement between the overlapping portion and the side portion.
An inkjet printing method including the steps of: - providing inkjet inks from an inkjet ink stock in ink transporting units including a machine readable code to an inkjet printing device; - scanning the machine readable code by a scanning device; - printing the inkjet inks with the inkjet printing device on a substrate; - automatically sending digital inkjet ink consumption data from the inkjet printing device via a digital connection to a computer of an inkjet ink supplier; and - replenishing the inkjet ink stock with an amount of at least one of the inkjet inks from the inkjet ink supplier, wherein said amount is determined in accordance with the digital inkjet ink consumption data; wherein said amount is sent by the inkjet ink supplier in ink transporting units selected from the group consisting of bottles, jerrycans, barrels and IBC-containers; and wherein information scanned from the machine readable code is sent to the computer. - providing inkjet inks from an inkjet ink stock in ink transporting units including a machine readable code to an inkjet printing device; - scanning the machine readable code by a scanning device; - printing the inkjet inks with the inkjet printing device on a substrate; - automatically sending digital inkjet ink consumption data from the inkjet printing device via a digital connection to a computer of an inkjet ink supplier; and - replenishing the inkjet ink stock with an amount of at least one of the inkjet inks from the inkjet ink supplier, wherein said amount is determined in accordance with the digital inkjet ink consumption data; wherein said amount is sent by the inkjet ink supplier in ink transporting units selected from the group consisting of bottles, jerrycans, barrels and IBC-containers; and wherein information scanned from the machine readable code is sent to the computer.
A method for controlling, reducing or preventing mercury emission or re-emission levels in a cleaned combustion flue gas comprising the steps of supplying a combustion flue gas to a WFGD system for direct contact with an aqueous alkaline slurry for removal of contaminants from the flue gas to produce a cleaned flue gas, measuring a dissolved mercury species concentration or mercury concentration to obtain a measured concentration value in the WFGD system for comparison to a predetermined concentration value, and adjusting an amount of a complexing agent supplied to the WFGD system to increase or decrease the measured concentration value to reduce levels of mercury emission and/or re-emission in the produced cleaned flue gas, characterized in that cyclodextrin additive is used as complexing agent.
A remote control device (120, 200, 300, 400) that is configured for use in a load control system, the remote control device comprising: a mounting structure (210, 260, 310, 412) configured to be mounted over a toggle actuator (272, 304, 404) of a mechanical switch (270, 302, 402) that controls whether power is delivered to an electrical load of the load control system; and a control unit (230, 320, 520) comprising a user interface (240, 532), an orientation sensing circuit, and a communication circuit, the control unit configured to be attached to the mounting structure in a plurality of orientations, the control unit configured to: determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data. a mounting structure (210, 260, 310, 412) configured to be mounted over a toggle actuator (272, 304, 404) of a mechanical switch (270, 302, 402) that controls whether power is delivered to an electrical load of the load control system; and a control unit (230, 320, 520) comprising a user interface (240, 532), an orientation sensing circuit, and a communication circuit, the control unit configured to be attached to the mounting structure in a plurality of orientations, the control unit configured to: determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data. determine an orientation of the control unit relative to the mounting structure via the orientation sensing circuit; translate a user input from the user interface into control data based on the orientation of the control unit, the control data configured to control the electrical load; and cause the communication circuit to transmit a control signal comprising the control data.
A fuel control arrangement comprising: a first flow path; a second flow path; a common fuel source; a fuel injector, the first flow path and the second flow path each being coupled to: i) the common fuel source, and ii) the fuel injector; a fuel control valve that is: i) connected between the first flow path and the second flow path, and ii) coupled to the fuel injector; a controller; and a restrictor valve that is: i) disposed on the second flow path, ii) configured to control the flow of fuel in the second flow path, iii) connected to the controller, and iv) located in a distinct temperature environment other than the fuel injector and the fuel control valve; the controller being configured to control the restrictor valve to vary a proportion of fuel distributed between the first flow path and the second flow path. a first flow path; a second flow path; a common fuel source; a fuel injector, the first flow path and the second flow path each being coupled to: i) the common fuel source, and ii) the fuel injector; a fuel control valve that is: i) connected between the first flow path and the second flow path, and ii) coupled to the fuel injector; a controller; and a restrictor valve that is: i) disposed on the second flow path, ii) configured to control the flow of fuel in the second flow path, iii) connected to the controller, and iv) located in a distinct temperature environment other than the fuel injector and the fuel control valve; the controller being configured to control the restrictor valve to vary a proportion of fuel distributed between the first flow path and the second flow path.
A glove, in particular a pilot's glove, which is made of a plurality of material blanks (10, 17, 19, 25, 30 - 33), a first material blank seamlessly forming at least an inner side of an index finger region and an inner side of a thumb region of the glove, the first material blank being designed to encompass the end region of an index finger by more than 180° and to extend beyond the index finger tip, and fourchettes (30 - 33) being arranged on the fingers of the glove, except for between the thumb and index finger, the first material blank also forming at least part of a palm region and an inner side of a ring finger region and of a little finger region of the glove, characterized in that a blank made of the same material as the first material blank is attached to the first material blank by a seam, the blank forming an inner side of a middle finger region, and in that the fourchette between the index finger and middle finger extends only over the lower index finger region.
Two terminal tandem cell comprising: - a silicon bottom cell comprising a silicon layer, a rear contact configured to be linked to a first terminal and a front contact, - a perovskite top cell comprising a layer of perovskite and a capping layer, wherein the perovskite top cell comprises alternated back contacts made by a first carrier transport layer arranged on the front contact of the silicon bottom cell to produce a recombination layer or a tunnel junction interface and a second carrier transport layer configured to be linked to a second terminal and wherein an insulator layer is arranged on one side between the silicon bottom cell and the second carrier transport layer and on the other side between the first carrier transport layer and the second transport layer and wherein the first carrier transport layer and the second carrier transport layer have opposite doping type. - a silicon bottom cell comprising a silicon layer, a rear contact configured to be linked to a first terminal and a front contact, - a perovskite top cell comprising a layer of perovskite and a capping layer,
Method for optimizing the signal-to-noise ratio in a system comprising an array of two or more receiving antennas (11, 12, 13) for receiving RF signals, each receiving antenna being connected, via a matching network (19, 20, 21), to a low-noise amplifier (22, 23, 24) presenting an input impedance to the matching network (19, 20,21), each chain consisting of a receiving antenna (11, 12, 13), a matching network (19, 20, 21) and a low-noise amplifier (22, 23, 24) constituting a part of a receiving channel of the system, the matching networks (19, 20, 21) transforming optimum impedances of the low-noise amplifiers (22, 23, 24), the optimum impedances providing optimum noise performance of the low-noise amplifiers (22, 23, 24), characterized in that the method comprises the steps of: a) switching the input impedance as presented to the matching network (19, 20, 21) in each receiving channel to the complex conjugate of the optimum impedance of the respective low-noise amplifier (22, 23, 24); b) receiving RF signals via the receiving antennas (11, 12, 13) and measuring the power of each RF signal, thereby obtaining a power signal for each receiving channel; c) forming a superposed signal from the received RF signals by weighted superposition of the power signals so as to obtain a sum signal, each weighting factor being dependent on the noise figure and the gain of the respective low-noise amplifier (22, 23, 24); d) tuning the matching networks (19, 20, 21) of all receiving channels so as to find an optimum matching condition on the basis of the superposed signal, the optimum matching condition being found by maximizing the sum signal; e) switching the input impedance as presented to the matching network (19, 20, 21) in each receiving channel back to the optimum impedance. a) switching the input impedance as presented to the matching network (19, 20, 21) in each receiving channel to the complex conjugate of the optimum impedance of the respective low-noise amplifier (22, 23, 24); b) receiving RF signals via the receiving antennas (11, 12, 13) and measuring the power of each RF signal, thereby obtaining a power signal for each receiving channel; c) forming a superposed signal from the received RF signals by weighted superposition of the power signals so as to obtain a sum signal, each weighting factor being dependent on the noise figure and the gain of the respective low-noise amplifier (22, 23, 24); d) tuning the matching networks (19, 20, 21) of all receiving channels so as to find an optimum matching condition on the basis of the superposed signal, the optimum matching condition being found by maximizing the sum signal; e) switching the input impedance as presented to the matching network (19, 20, 21) in each receiving channel back to the optimum impedance.
A terminal comprising a reception unit that receives information indicating a first subframe at which repetition transmission of an uplink signal starts and a second subframe at which repetition transmission of a response signal for a downlink data signal starts; wherein, if a first number of repetitions predetermined for the response signal and a second number of repetitions predetermined for the uplink signal are different from each other and the repetition transmission of the response signal and the repetition transmission of the uplink signal occur in the same subframes, the number of repetitions of the response signal is set to the first number of repetitions or the second number of repetitions, whichever is larger; and a transmission unit that repeatedly transmits the uplink signal using the second number of consecutive subframes starting with the first subframe and the response signal using the first or the second number of consecutive subframes, whichever is larger, starting with the second subframe, wherein the first subframe is set to be the same as the second subframe.
A metal powder for powder metallurgy, comprising particles, which consist of Fe as a principal component in a proportion of 50% by mass or more, Cr in a proportion of 0.2% by mass or more and 35% by mass or less, Si in a proportion of 0.2% by mass or more and 3% by mass or less, and C in a proportion of 0.005% by mass or more and 2% by mass or less, Ni in a proportion of 41% by mass or less, and optionally at least one of the elements: W, Co, Mn, Mo, Cu, N, and S, wherein a W content in the particle is 0.5% by mass or more and 20% by mass or less, and/or a Co content in the particle is 3% by mass or more and 12% by mass or less, and/or a Mn content in the particle is 0.01% by mass or more and 3% by mass or less, and/or a Mo content in the particle is 1% by mass or more and 5% by mass or less, and/or a Cu content in the particle is 5% by mass or less, and/or a N content in the particle is 0.03% by mass or more and 1% by mass or less, and/or a S content in the particle is 0.5% by mass or less, and/or an oxygen content in the metal powder is 0.8% by mass or less, and further optionally B, Se, Te, Pd, Al with an individual content of each of said elements being less than 0.1% by mass and the total content of said elements being less than 0.2% by mass, impurity elements such that the content of each of the impurity elements is less than the content of each of Fe, Cr, Si, a first element, and a second element, and the content of each of the impurity elements is less than 0.03% by mass and the total content of the impurity elements is less than 0.3% by mass, and in which when one element selected from the group consisting of Ti, V, Y, Zr, Nb, Hf, and Ta is defined as a first element, and one element selected from the group consisting of Ti, V, Y, Zr, Nb, Hf, and Ta, and having a higher group number in the periodic table than that of the first element or having the same group number in the periodic table as that of the first element and a higher period number in the periodic table than that of the first element is defined as a second element, the first element is contained in a proportion of 0.01% by mass or more and 0.5% by mass or less, and the second element is contained in a proportion of 0.01% by mass or more and 0.5% by mass or less, wherein the content of Cr on the surface of each particle is 0.2% by atom or more and 15% by atom or less and is 70% or more and 170% or less the content of Cr at a depth of 60 nm from the surface of the particle.