mhurhangee/ep-ind-claims huggingface dataset:
An environmental control system of an aircraft comprising: a ram air circuit including a ram air shell having a primary heat exchanger and a secondary heat exchanger positioned therein; a dehumidification system arranged in fluid communication with the ram air circuit; and a compression device arranged in fluid communication with the ram air circuit and the dehumidification system, the compression device including a compressor, a turbine, and a fan coupled by a shaft, wherein the fan is operable to move ram air through the ram air circuit and the turbine includes a first inlet for receiving a first flow of medium and a second inlet for receiving a second flow of medium, wherein the second flow of medium is a fresh air; wherein the compressor has an inlet for receiving the second flow of medium and an outlet; wherein the secondary heat exchanger is positioned downstream of the compressor to receive the second flow of medium; wherein an outflow heat exchanger is provided downstream of the secondary heat exchanger to receive the second flow of medium from the secondary heat exchanger, wherein the dehumidification system is provided downstream of the outflow heat exchanger to receive the second flow of medium discharged from the outflow heat exchanger; and wherein the second flow of medium exiting the dehumidification system is provided to the turbine; further comprising a valve configured, when opened, to direct a portion of the second flow of medium output from the compressor to an inlet of the fan of the compression device to rotate the fan and drive movement of ram air through the ram air circuit. a ram air circuit including a ram air shell having a primary heat exchanger and a secondary heat exchanger positioned therein; a dehumidification system arranged in fluid communication with the ram air circuit; and a compression device arranged in fluid communication with the ram air circuit and the dehumidification system, the compression device including a compressor, a turbine, and a fan coupled by a shaft, wherein the fan is operable to move ram air through the ram air circuit and the turbine includes a first inlet for receiving a first flow of medium and a second inlet for receiving a second flow of medium, wherein the second flow of medium is a fresh air; wherein the compressor has an inlet for receiving the second flow of medium and an outlet; wherein the secondary heat exchanger is positioned downstream of the compressor to receive the second flow of medium; wherein an outflow heat exchanger is provided downstream of the secondary heat exchanger to receive the second flow of medium from the secondary heat exchanger, wherein the dehumidification system is provided downstream of the outflow heat exchanger to receive the second flow of medium discharged from the outflow heat exchanger; and wherein the second flow of medium exiting the dehumidification system is provided to the turbine; further comprising a valve configured, when opened, to direct a portion of the second flow of medium output from the compressor to an inlet of the fan of the compression device to rotate the fan and drive movement of ram air through the ram air circuit.
An aqueous composition comprising a first compound having at least two thiol groups; a second compound having the general structure of wherein R1 is an alkyl, a dialkyl ether, dialkyl ester, dialkyl urethane or a dialkyl amide group, R2 is an at least one allyl containing group, R3 is hydrogen, an alkyl group or an at least one allyl containing group and R4 is hydrogen, an alkyl group or an at least one allyl containing group; wherein the first compound or the second compound comprises at least one phosphonic acid containing group X with the proviso that when the second compound comprises the at least one phosphonic acid containing group said group is bound to the R1 group; and a photo initiator; wherein the molar ratio between the phosphonic acid groups and the allyl groups in the composition is 0.01 to 0.5. a first compound having at least two thiol groups; a second compound having the general structure of wherein R1 is an alkyl, a dialkyl ether, dialkyl ester, dialkyl urethane or a dialkyl amide group, R2 is an at least one allyl containing group, R3 is hydrogen, an alkyl group or an at least one allyl containing group and R4 is hydrogen, an alkyl group or an at least one allyl containing group; wherein the first compound or the second compound comprises at least one phosphonic acid containing group X with the proviso that when the second compound comprises the at least one phosphonic acid containing group said group is bound to the R1 group; and a photo initiator; wherein R1 is an alkyl, a dialkyl ether, dialkyl ester, dialkyl urethane or a dialkyl amide group, R2 is an at least one allyl containing group, R3 is hydrogen, an alkyl group or an at least one allyl containing group and R4 is hydrogen, an alkyl group or an at least one allyl containing group; wherein the first compound or the second compound comprises at least one phosphonic acid containing group X with the proviso that when the second compound comprises the at least one phosphonic acid containing group said group is bound to the R1 group; and a photo initiator; wherein the molar ratio between the phosphonic acid groups and the allyl groups in the composition is 0.01 to 0.5.
A retainer or clamp which is configured to contact the body, that provides a controlled clamping force to maintain grip to the skin or controlled pressure on a specific location, wherein it comprises: a substantially rigid yet resilient front support (2, 13, 20, 36, 51); a substantially rigid yet resilient back support (4, 14, 21, 28, 32, 38, 53); a substantially curved rigid yet resilient tube (6, 16, 23, 30, 34, 40, 45, 49, 55), which directly or indirectly joins said front support (2, 13, 20, 36, 51) and said back support (4, 14, 21, 28, 32, 38, 53); a cable tensioner in between of, or on either said front support (2, 13, 20, 36, 51) or said back support (4, 14, 21, 28, 32, 38, 53); characterized in that it comprises a cable (7, 56) which passes through said tube (6, 16, 23, 30, 34, 40, 45, 49, 55) which is secured to said cable tensioner and to at least one of said supports (2, 4, 13, 14, 20, 21, 28, 32, 36, 38, 51, 53), and when tensioned, remains substantially tight to the inside curvature of said tube (6, 16, 23, 30, 34, 40, 45, 49, 55). a substantially rigid yet resilient front support (2, 13, 20, 36, 51); a substantially rigid yet resilient back support (4, 14, 21, 28, 32, 38, 53); a substantially curved rigid yet resilient tube (6, 16, 23, 30, 34, 40, 45, 49, 55), which directly or indirectly joins said front support (2, 13, 20, 36, 51) and said back support (4, 14, 21, 28, 32, 38, 53); a cable tensioner in between of, or on either said front support (2, 13, 20, 36, 51) or said back support (4, 14, 21, 28, 32, 38, 53); characterized in that it comprises a cable (7, 56) which passes through said tube (6, 16, 23, 30, 34, 40, 45, 49, 55) which is secured to said cable tensioner and to at least one of said supports (2, 4, 13, 14, 20, 21, 28, 32, 36, 38, 51, 53), and when tensioned, remains substantially tight to the inside curvature of said tube (6, 16, 23, 30, 34, 40, 45, 49, 55).
A clip that fixes a ceiling joist intersecting a ceiling joist receiver to the ceiling joist receiver, the clip comprising: a top portion having a width of the ceiling joist receiver; a first hanging portion hanging down from one end of the top portion, and provided with, at a lower portion, first engaging projections extending left and right to engage the ceiling joist; and a second hanging portion hanging down from another end of the top portion, and provided with, at a lower portion, second engaging projections extending left and right to lock the ceiling joist, wherein the first hanging portion has a length longer than that of the second hanging portion, characterized in that a recess extending in a direction toward the second hanging portion is provided only at an intermediate position of the first hanging portion. a top portion having a width of the ceiling joist receiver; a first hanging portion hanging down from one end of the top portion, and provided with, at a lower portion, first engaging projections extending left and right to engage the ceiling joist; and a second hanging portion hanging down from another end of the top portion, and provided with, at a lower portion, second engaging projections extending left and right to lock the ceiling joist, wherein the first hanging portion has a length longer than that of the second hanging portion, characterized in that a recess extending in a direction toward the second hanging portion is provided only at an intermediate position of the first hanging portion.
A system comprising: a carrier tray comprising a plurality of elliptical ports therethrough with a length diameter that is larger than a width diameter, each port having a top edge and a bottom edge and an interior wall; and a process tube removably secured within a port of the carrier tray, the process tube comprising: an annular ledge; a protrusion comprising an outside diameter that is larger than at least one diameter of the port; a neck between the ledge and the protrusion; a body extending below the protrusion, wherein an outside diameter of the body is smaller than the length diameter and the width diameter of the port; and a top ring extending vertically up from the annular ledge and defining an opening to the process tube, wherein the protrusion comprises an apex, an upper slope from the apex to the neck, and a lower slope from the apex to the body and wherein the angle of the upper slope on the protrusion towards a longitudinal axis of the process tube is steeper than the angle of the lower slope on the protrusion towards the longitudinal axis of the process tube, and wherein when the process tube is secured in the port, a bottom surface of the annular ledge rests on a top surface of the carrier tray and the upper slope of the protrusion contacts the bottom edge of the port. a carrier tray comprising a plurality of elliptical ports therethrough with a length diameter that is larger than a width diameter, each port having a top edge and a bottom edge and an interior wall; and a process tube removably secured within a port of the carrier tray, the process tube comprising: an annular ledge; a protrusion comprising an outside diameter that is larger than at least one diameter of the port; a neck between the ledge and the protrusion; a body extending below the protrusion, wherein an outside diameter of the body is smaller than the length diameter and the width diameter of the port; and a top ring extending vertically up from the annular ledge and an annular ledge; a protrusion comprising an outside diameter that is larger than at least one diameter of the port; a neck between the ledge and the protrusion; a body extending below the protrusion, wherein an outside diameter of the body is smaller than the length diameter and the width diameter of the port; and a top ring extending vertically up from the annular ledge and defining an opening to the process tube,
A device for the flow-through treatment of web-shaped, gas permeable material, in particular for drying woven or non-woven fabrics, with the following features: - a sieve drum that is rotatably supported and is connected with a vacuum generator, the sieve drum having a permeable outer circumference, wherein the material web to be treated travels around a part of the outer circumference of the sieve drum, - a treatment chamber accommodating the sieve drum, which is exposed to the gas to be treated, preferably heated air, - within the treatment chamber, a sieve cover or corresponding flow guide elements are provided surrounding the sieve drum in the area wrapped by the material web, by which the gas flowing in the treatment chamber is directed towards the sieve drum surface, characterized in that the wall of the treatment chamber, which faces the outer circumference of the sieve drum in the area of wrapping by the material web, has, in this area, a decreasing distance to the surface of the sieve drum, wherein, seen in the direction of rotation of the sieve drum, the distance (a1, a2, a3) to the outer circumference of the sieve drum decreases continuously. - a sieve drum that is rotatably supported and is connected with a vacuum generator, the sieve drum having a permeable outer circumference, wherein the material web to be treated travels around a part of the outer circumference of the sieve drum, - a treatment chamber accommodating the sieve drum, which is exposed to the gas to be treated, preferably heated air, - within the treatment chamber, a sieve cover or corresponding flow guide elements are provided surrounding the sieve drum in the area wrapped by the material web, by which the gas flowing in the treatment chamber is directed towards the sieve drum surface,
Fuel part, comprising a polymer composition comprising: i. an aliphatic polyamide A in which the ratio of terminal carboxy group concentration over terminal amino group concentration of the aliphatic polyamide A is equal to 1 or higher, and ii. micro talcum in an amount of 0.001 to 1 weight percent with respect to the total amount of the polymer composition, and iii. an impact modifier in an amount of at least 1.0 weight percent with respect to the total amount of the polymer composition. i. an aliphatic polyamide A in which the ratio of terminal carboxy group concentration over terminal amino group concentration of the aliphatic polyamide A is equal to 1 or higher, and ii. micro talcum in an amount of 0.001 to 1 weight percent with respect to the total amount of the polymer composition, and iii. an impact modifier in an amount of at least 1.0 weight percent with respect to the total amount of the polymer composition.
A method for configuring random access channel, RACH, resources, applied to a terminal device, wherein the method comprises: receiving configuration information sent by a network device, wherein the configuration information is used to configure time domain resources and frequency domain resources of the RACH resources, the RACH resources correspond to multiple groups of frequency domain resources, the multiple groups of frequency domain resources do not overlap, characterized in that frequency domain resources corresponding to RACH resources on different time domain resources are different within each preset time, wherein the preset time represents a time length of a receiving window for a random access preamble; and sending the random access preamble to the network device on the RACH resources. receiving configuration information sent by a network device, wherein the configuration information is used to configure time domain resources and frequency domain resources of the RACH resources, the RACH resources correspond to multiple groups of frequency domain resources, the multiple groups of frequency domain resources do not overlap, characterized in that frequency domain resources corresponding to RACH resources on different time domain resources are different within each preset time, wherein the preset time represents a time length of a receiving window for a random access preamble; and sending the random access preamble to the network device on the RACH resources.
An arrangement for a mine drilling machine, comprising - a hollow, flexible and rotatable drill rod, - a feed unit for feeding and rotating said drill rod, - a feed beam arranged to support the feed unit, - a guiding element system arranged to support a section of the drill rod entering the feed unit, the guiding element system comprising -- an inner guide, arranged to envelop said section of the drill rod, -- an outer support arrangement arranged to support and guide a first length of the inner guide in/on a carrier part of the mine drilling machine, and -- the inner guide being movable in its lengthwise direction in the outer support arrangement characterized in that the inner guide is flexible or comprises a flexible section. - a hollow, flexible and rotatable drill rod, - a feed unit for feeding and rotating said drill rod, - a feed beam arranged to support the feed unit, - a guiding element system arranged to support a section of the drill rod entering the feed unit, the guiding element system comprising -- an inner guide, arranged to envelop said section of the drill rod, -- an outer support arrangement arranged to support and guide a first length of the inner guide in/on a carrier part of the mine drilling machine, and -- the inner guide being movable in its lengthwise direction in the outer support arrangement characterized in that -- an inner guide, arranged to envelop said section of the drill rod, -- an outer support arrangement arranged to support and guide a first length of the inner guide in/on a carrier part of the mine drilling machine, and -- the inner guide being movable in its lengthwise direction in the outer support arrangement characterized in that
Method for controlling an energy equivalence factor corresponding to a weighting value applied between a supply of heat energy and a supply of electrical energy, in order to minimize on one operating point the overall energy consumption of a hybrid drive train for an automobile vehicle comprising a heat engine and at least one electric motor powered by an electrical accumulator, the method comprising a step for estimating a value ( K calc) of said energy equivalence factor as a function of the difference (σ) between an instantaneous value (soe) of the energy state of the electrical accumulator and a target value (soe ref) of the energy state of the electrical accumulator, characterized in that the estimation step comprises: - a step for comparing said difference (σ) with at least one positive threshold value (ε soe) and at least one negative threshold value (-ε soe), and - a step for calculating the estimated value ( K calc) of the energy equivalence factor, said estimated value ( K calc) being: ∘ proportional to a predetermined maximum value ( K max) when said difference (σ) is less than said negative threshold value (-ε soe), or ∘ proportional to a predetermined minimum value ( K min) when said difference (σ) is greater than said positive threshold value (ε soe), or ∘ a function of said difference (σ), of said negative threshold value (-ε soe) and positive threshold value (ε soe), and of the predetermined minimum and maximum values ( K min, K m ax) when said difference (σ) is in the range between the negative threshold value (-ε soe) and the positive threshold value (ε soe). - a step for comparing said difference (σ) with at least one positive threshold value (ε soe) and at least one negative threshold value (-ε soe), and - a step for calculating the estimated value ( K calc) of the energy equivalence factor, said estimated value ( K calc) being: ∘ proportional to a predetermined maximum value ( K max) when said difference (σ) is less than said negative threshold value (-ε soe), or ∘ proportional to a predetermined minimum value ( K min) when said difference (σ) is greater than said positive threshold value (ε soe), or ∘ a function of said difference (σ), of said negative threshold value (-ε soe) and positive threshold value (ε soe), and of the predetermined minimum and maximum values ( K min, K m ax) when said difference (σ) is in the range between the negative threshold value (-ε soe) and the positive threshold value (ε soe). ∘ proportional to a predetermined maximum value ( K max) when said difference (σ) is less than said negative threshold value (-ε soe), or ∘ proportional to a predetermined minimum value ( K min) when said difference (σ) is greater than said positive threshold value (ε soe), or ∘ a function of said difference (σ), of said negative threshold value (-ε soe) and positive threshold value (ε soe), and of the predetermined minimum and maximum values ( K min, K m ax) when said difference (σ) is in the range between the negative threshold value (-ε soe) and the positive threshold value (ε soe).
An overvoltage protection circuit for protecting the electronics of a motor against overvoltage pulses, with two protective devices (FS1, FS2) which are arranged in series connection between two connections (10, 20), wherein a resistor (R1, R2) is connected in parallel to each of the protective devices (FS1, FS2) and at least one capacitive element is provided in parallel connection to the first protective device, wherein the overvoltage protection circuit has, between the connections (10, 20), at least a first lower and a second higher breakdown voltage point respectively ignition voltage point at a voltage U Z1 respectively U Z2 dependent on the voltage change over time k = dU/dt of a voltage U GA at the connections (10, 20), wherein each protective device (FS1, FS2) has a voltage-dependent resistor and is insulating below a respective protective device-specific breakdown voltage respectively ignition voltage, respectively, and conductive above the corresponding breakdown voltage respectively ignition voltage, characterized in that, a response behavior of the overvoltage protection circuit takes place in the case of a slow voltage change U GA at a second higher breakdown voltage respectively ignition voltage and in the case of a rapid voltage change of the voltage U GA at a first lower breakdown voltage respectively ignition voltage, wherein in the case of a rapid voltage change of the voltage U GA to the breakdown voltage respectively ignition voltage Uzi, i.e., if k is greater than a system-specific value k spez, at least one of the two protective devices (FS1, FS2) becomes conductive or an electric arc is ignited and wherein in the case of a slow voltage change of the voltage U GA, i.e., if k is smaller than a system-specific value k spez, one or both protective devices (FS1, FS2) become conductive only when the second higher breakdown voltage respectively ignition voltage U Z2 has been reached or an electric arc is ignited in at least one of the protective devices (FS1, FS2).
A textile comprising first and second conductive layers, at least one porous layer positioned between the first and second conductive layers (2, 3), the first and second conductive layers (2, 3) being arranged to generate an electric field whereby a current passes between the conductive layers (2, 3) so as to induce liquid transport and so as to cause ions to be received at the second conductive layer, characterised by measurement means arranged to measure the amount of charge transferred between the first and second conductive layers (2, 3) during a liquid transport operation, the measurement means being able to take account of any variation in current or voltage during the liquid transport operation, and control means arranged to control a regenerating operation to regenerate the second conductive layer by transferring via it an amount of charge substantially equal to the measured amount so as to cause ions to be removed from the second conductive layer and thereby regenerate the conductive layer.