mhurhangee/ep-ind-claims huggingface dataset:
A vehicle air-conditioning system, comprising - a housing, - at least one air channel for the passage of air, - a fan, - an air filter, - a filter cover with a tub for collecting water on the air filter and preferably an arrangement for draining the water out of the tub, - a groove-spring connection for the releasable connection of the filter cover and the housing, characterised in that due to the geometry of the groove-spring connection, the filter cover can be connected to the housing and released therefrom, in particular exclusively, by means of a substantially horizontal translational movement of the filter cover, wherein the groove-spring connection is arranged on a stop side, preferably on two opposite stop sides of the filter cover, substantially in a horizontal translational direction, so that the groove-spring connection, which is substantially oriented in a horizontal translational manner, serves as stop during the substantially horizontal translational movement of the filter cover for the connection to the housing and wherein the groove-spring connection, on one guidance side, preferably on two opposite guidance sides, serves as guidance rail for guiding the filter cover during the movement of the filter cover in order to connect it to the housing and release it therefrom. - a housing, - at least one air channel for the passage of air, - a fan, - an air filter, - a filter cover with a tub for collecting water on the air filter and preferably an arrangement for draining the water out of the tub, - a groove-spring connection for the releasable connection of the filter cover and the housing,
A method of preparing a high-viscosity poly(ether ester) copolymer having a polyether content of 60 % by weight to 90 % by weight and an intrinsic viscosity at 25 °C of more than 2.0 measured as indicated in the specification, the method comprising: a) an esterification step of reacting a diol, a dicarboxylic acid, and a polyether diol in the presence of a catalyst; b) a first polycondensation step of further introducing the catalyst to the reaction mixture of the step a) and performing polycondensation under reduced pressure to prepare a prepolymer; and c) a second polycondensation step of performing polycondensation of the prepolymer under a lower pressure condition than that of the step b), wherein a molar ratio of the diol/dicarboxylic acid introduced in the step a) is more than 2.5, and an amount of the catalyst introduced each in the steps a) and b) is 50 ppm or more, based on an active metal. a) an esterification step of reacting a diol, a dicarboxylic acid, and a polyether diol in the presence of a catalyst; b) a first polycondensation step of further introducing the catalyst to the reaction mixture of the step a) and performing polycondensation under reduced pressure to prepare a prepolymer; and c) a second polycondensation step of performing polycondensation of the prepolymer under a lower pressure condition than that of the step b),
A method for recovering iodine-containing compounds from a gaseous byproducts stream comprising at least one iodine-containing compound, the method comprising: receiving gaseous byproducts comprising at least one iodine containing compound, methyl acetate, and acetic acid from a carbonylation process, contacting a gaseous stream comprising said gaseous byproducts comprising said at least one iodine containing compound, methyl acetate, and acetic acid with a liquid comprising methyl acetate in a first scrubbing zone to produce a methyl acetate-scrubbed gaseous stream and a first used scrubbant, the first used scrubbant comprising methyl acetate, acetic acid, and the iodine-containing compound; and contacting at least some of the methyl acetate-scrubbed gaseous stream with a liquid comprising acetic acid in a second scrubbing zone to produce an acetic acid-scrubbed gaseous stream and a second used scrubbant, the second used scrubbant comprising methyl acetate and acetic acid; and wherein the method further comprises separating the second used scrubbant in a distillation zone to produce a distillation overhead comprising methyl acetate and a distillation underflow comprising acetic acid, wherein at least some of the distitiation underflow is recycled to the second scrubbing zone and wherein the distillation overhead is further processed in the carbonylation process and/or is used in other processes. receiving gaseous byproducts comprising at least one iodine containing compound, methyl acetate, and acetic acid from a carbonylation process, contacting a gaseous stream comprising said gaseous byproducts comprising said at least one iodine containing compound, methyl acetate, and acetic acid with a liquid comprising methyl acetate in a first scrubbing zone to produce a methyl acetate-scrubbed gaseous stream and a first used scrubbant, the first used scrubbant comprising methyl acetate, acetic acid, and the iodine-containing compound; and contacting at least some of the methyl acetate-scrubbed gaseous stream with a liquid comprising acetic acid in a second scrubbing zone to produce an acetic acid-scrubbed gaseous stream and a second used scrubbant, the second used scrubbant comprising methyl acetate and acetic acid; and wherein the method further comprises separating the second used scrubbant in a distillation zone to produce a distillation overhead comprising methyl acetate and a distillation underflow comprising acetic acid, wherein at least some of the distitiation underflow is recycled to the second scrubbing zone and wherein the distillation overhead is further processed in the carbonylation process and/or is used in other processes.
A self-expanding mesh endoprosthesis for endoscopic hernioplasty, comprising a knitted mesh fabric made of threads and a self-expanding system enclosed in the mesh fabric, wherein the self-expanding system is made of multifilament titanium threads located both in the structure and along the contour of the endoprosthesis, and wherein titanium threads of the mesh fabric are made with a relief surface having chaotically located depressions and bumps.
An electromagnetic shielding paint composition capable of providing a non-metallic finish, comprising a supported metallic flake which comprises a non-conductive support with a conductive metallic coating, with an average flake size of less than 100 microns, present in the range of from 20 to 45 volume % of dried volume, a paint pigment present in the range of from 2 to 20 volume % of dried volume, and a binder wherein the paint pigment is a particulate, and is TiO 2..
A transmission apparatus comprising: a code block segmentation unit configured to output one or more code blocks with a first size based on an input of a transport block with a Cyclic Redundancy Check, CRC, and an encoding unit configured to generate encoded bits by applying Low Density Parity Check, LDPC, coding for each of the one or more code blocks, wherein the transport block with the CRC is segmented into the one or more code blocks in a case that a second size (b k) of the transport block with the CRC is larger than a third size, the third size is given based on a generation method for a matrix for the LDPC coding, the third size is a first value in a case that a first matrix for the LDPC coding is generated based on a first generation method, and the third size is a second value which is different from the first value in a case that a second matrix for the LDPC coding is generated based on a second generation method. a code block segmentation unit configured to output one or more code blocks with a first size based on an input of a transport block with a Cyclic Redundancy Check, CRC, and an encoding unit configured to generate encoded bits by applying Low Density Parity Check, LDPC, coding for each of the one or more code blocks, wherein the transport block with the CRC is segmented into the one or more code blocks in a case that a second size (b k) of the transport block with the CRC is larger than a third size, the third size is given based on a generation method for a matrix for the LDPC coding, the third size is a first value in a case that a first matrix for the LDPC coding is generated based on a first generation method, and the third size is a second value which is different from the first value in a case that a second matrix for the LDPC coding is generated based on a second generation method.
An audio decoder (100; 200) for providing a decoded audio signal representation (112; 212) on the basis of an encoded audio signal representation (110; 210; 312;412;550; 600;700;800), wherein the audio decoder is configured to adjust decoding parameters in dependence on a configuration information (110a;222c;332;424; 1010, 1030), wherein the audio decoder is configured to decode one or more audio frames using a current configuration information (140;240), and wherein the audio decoder is configured to compare a configuration information (110a;222c;332;424; 1010, 1030) in a configuration structure associated with one or more frames to be decoded, with the current configuration information (140;240), and to make a transition to perform a decoding using the configuration information in the configuration structure associated with the one or more frames to be decoded as a new configuration information if the configuration information in the configuration structure associated with the one or more frames to be decoded, or a relevant portion (1020a,1020b,1022a,1024a,1024b,1026a,1050a) of the configuration information in the configuration structure associated with the one or more frames to be decoded, is different from the current configuration information; wherein the audio decoder is configured to consider a stream identifier information (230; streamID, 1050a, streamIdentifier) included in the configuration structure when comparing the configuration information, such that a difference between a stream identifier previously acquired by the audio decoder and a stream identifier represented by the stream identifier information in the configuration structure associated with the one or more frames to be decoded causes to make the transition.
An absorbent article, comprising: a nonwoven fabric, wherein the nonwoven fabric includes organic cotton fibers, the organic cotton fibers form a plurality of fiber lumps in the nonwoven fabric, the fiber lumps are configured to be visible from the outside, a light transmittance of a portion corresponding to the fiber lumps in the nonwoven fabric is lower than a light transmittance of a portion in the nonwoven fabric where the fiber lumps are not present, the nonwoven fabric includes synthetic fibers, the organic cotton fibers have an average fiber length shorter than an average fiber length of the synthetic fibers, the organic cotton fibers are not thermally fused to the synthetic fibers, and the synthetic fibers include 10% to 40% of fibers having a fineness of less than 2.0 dtex among fibers having a fineness of at least 2.0 dtex. a nonwoven fabric, wherein the nonwoven fabric includes organic cotton fibers, the organic cotton fibers form a plurality of fiber lumps in the nonwoven fabric, the fiber lumps are configured to be visible from the outside, a light transmittance of a portion corresponding to the fiber lumps in the nonwoven fabric is lower than a light transmittance of a portion in the nonwoven fabric where the fiber lumps are not present, the nonwoven fabric includes synthetic fibers, the organic cotton fibers have an average fiber length shorter than an average fiber length of the synthetic fibers, the organic cotton fibers are not thermally fused to the synthetic fibers, and the synthetic fibers include 10% to 40% of fibers having a fineness of less than 2.0 dtex among fibers having a fineness of at least 2.0 dtex.
Cue comprising a shaft and an end piece, wherein the shaft has a cavity at the position of a striking end of the cue, wherein the shaft is hollow at the striking end to form the cavity, wherein the cavity extends along a longitudinal axis of the cue, wherein the end piece comprises a core which is situated in the cavity, wherein the end piece further comprises at least two ribs which extend from the core in a direction radially of the longitudinal axis, wherein the shaft comprises at least two notches at the position of the cavity, which each comprise two opposite inner walls through which the at least two ribs extend at least partially, and wherein the side walls of the at least two ribs lie against the opposite inner walls so as to connect the end piece to the shaft, characterized in that the at least two notches extend from the striking end of the cue along the longitudinal axis such that the ribs can be inserted along the longitudinal axis and wherein the ribs extend radially through the wall of the shaft, wherein the at least two notches each have a depth as measured along the longitudinal axis, and wherein the at least two ribs each have a length substantially equal to the depth, such that the at least two ribs are compatible in shape with the at least two notches.
A fastening system, having two fastening elements which are designed as a ring component and a rotor for an electric motor, wherein, on one of the fastening elements, at least one latching hook is formed and, on the other fastening element, at least one latching groove is formed, which, in the fastened state, engage in a positive-lock manner and directly in one another in a fastening manner and connect the ring component and the rotor releasably to one another, wherein, on the ring component, the at least one latching hook and at least one resilient spring element are formed, the latter, in the fastened state of the ring component on the rotor, exerting a biasing force on a contact surface formed as an axial end face of the other fastening element, wherein the biasing force is directed against a holding force of the at least one latching hook, wherein the ring component is formed as a labyrinth ring having a plurality of step portions adjoining one another in the radial direction, and wherein the rotor has an axial projecting portion which, in the fastened state of the ring component on the rotor, abuts at least one of the step portions of the ring component in both the axial and the radial directions, characterized in that the at least one latching groove is formed on an outer peripheral surface of the rotor or a rotor housing of the rotor, the axial projecting portion, in the fastened state of the ring component on the rotor, contacts at least one of the step portions of the ring component in both the axial and the radial directions in a positive-lock manner, and in the fastened state of the ring component on the rotor, a contact shoulder of the at least one latching groove for engagement with the at least one latching hook is in the same axial plane as the contact surface on which the biasing force is exerted by the spring element.
An extracorporeal circulation device including a blood removal line through which blood withdrawn from inside of a body of a subject passes, a centrifugal pump that is connected downstream of the blood removal line and carries out blood sending by rotational motion, an oxygenator connected downstream relative to the centrifugal pump, a blood sending line that is downstream relative to the oxygenator and returns blood to the inside of the body, and a flow rate sensor that detects a blood flow rate in the blood sending line, the extracorporeal circulation device comprising: an intermediate part pressure sensor that is a pressure sensor that detects pressure in a circuit between the centrifugal pump and the oxygenator; and a discharge pressure identifying unit that is configured to identify discharge pressure specific to the centrifugal pump based on rotation speed of the centrifugal pump and the blood flow rate detected in the flow rate sensor, characterized by a blood removal pressure calculating unit that is configured to substract the discharge pressure identified in the discharge pressure identifying unit from the pressure measured by the intermediate part pressure sensor to estimate pressure in the blood removal line. an intermediate part pressure sensor that is a pressure sensor that detects pressure in a circuit between the centrifugal pump and the oxygenator; and a discharge pressure identifying unit that is configured to identify discharge pressure specific to the centrifugal pump based on rotation speed of the centrifugal pump and the blood flow rate detected in the flow rate sensor, characterized by a blood removal pressure calculating unit that is configured to substract the discharge pressure identified in the discharge pressure identifying unit from the pressure measured by the intermediate part pressure sensor to estimate pressure in the blood removal line.
An alloy consisting of, by weight per cent, between 18 and 20% chromium, between 8.5% and 12% cobalt, between 6.4 and 9.4% iron, up to 1.5% manganese, between 3.5 and 5.3% tungsten, up to 1.5% niobium, between 0.4% and 1% tantalum, up to 1.5% silicon, between 1.5 and 2.3% aluminium, between 0.5 and 2.4% titanium, between 0.005 and 0.04% carbon, between 0.005 and 0.07% boron, and between 0.02 and 0.10% zirconium, optionally, up to 0.5% molybdenum, the balance being nickel save for incidental impurities.
A method of producing an imide ether compound represented by the general formula, characterized in that a nitrile compound represented by the general formula, an alcohol represented by the general formula in a ratio of 0.3 to 0.7 mole, and a hydrogen halide represented by the general formula in a ratio of 0.8 to 3.o moles, relative to 1 mole of said nitrile compound, are continuously introduced into a flow reaction device comprising a mixer and a flow reactor, and then a reaction solution containing the resultant imide ether compound, and said alcohol in a ratio that total amount of said alcohol is 1.0 to 3.0 moles, relative to 1 mole of said nitrile compound, are continuously subjected to a reaction: R 1 CN wherein R 1 represents a hydrogen atom, or a C 1 to C 12 hydrocarbon group or aryl group, which may have a substitution group, or may contain an atom other than carbon in the structure; R 2 OH wherein R 2 represents a C 1 to C 12 hydrocarbon group; HX wherein X represents a chlorine atom, a bromine atom or an iodine atom; R 1 C(OR 2)=NH·HX wherein R 1 represents a hydrogen atom, or a C 1 to C 12 hydrocarbon group or aryl group, which may have a substitution group, or may contain an atom other than carbon, in the structure; R 2 represents a C 1 to C 12 hydrocarbon group; and X represents a chlorine atom, a bromine atom or an iodine atom; wherein said mixer has a mixing unit with an equivalent diameter of 10 to 300,000 μm, and said flow reactor has a reaction unit with an equivalent diameter of 10 to 300,000 μm; the reaction temperature in the flow reactor is from -10 to 150 °C; and the residence time in the flow reactor is from 0.1 to 10,000 seconds.
A circuit interrupter, comprising: a passive integration channel including a passive integration circuit, wherein the passive integration channel is structured to receive an output signal from a di/dt current sensor and generate a first signal output based on the output signal that is proportional to a primary current received by the di/dt current sensor; an active integration channel including an active integrator, wherein the active integration channel is structured to receive the output signal from the di/dt current sensor and generate a second signal output based on the output signal that is proportional to the primary current received by the di/dt current sensor; a control system (16, 22), wherein the control system stores and is structured to execute a number of routines, the number of routines being structured to: provide circuit protection functionality for the circuit interrupter based on the first signal output responsive to the primary current being determined to be greater than a threshold level; provide current metering and circuit protection functionality for the circuit interrupter based on the second signal output responsive to the primary current being determined to be less than or equal to the threshold level; and provide a seed current value to the active integrator based on the first signal output. a passive integration channel including a passive integration circuit, wherein the passive integration channel is structured to receive an output signal from a di/dt current sensor and generate a first signal output based on the output signal that is proportional to a primary current received by the di/dt current sensor; an active integration channel including an active integrator, wherein the active integration channel is structured to receive the output signal from the di/dt current sensor and generate a second signal output based on the output signal that is proportional to the primary current received by the di/dt current sensor; a control system (16, 22), wherein the control system stores and is structured to execute a number of routines, the number of routines being structured to: provide circuit protection functionality for the circuit interrupter based on the first signal output responsive to the primary current being determined to be greater than a threshold level; provide current metering and circuit protection functionality for the circuit interrupter based on the second signal output responsive to the primary current being determined to be less than or equal to the threshold level; and provide a seed current value to the active integrator based on the first signal output. provide circuit protection functionality for the circuit interrupter based on the first signal output responsive to the primary current being determined to be greater than a threshold level; provide current metering and circuit protection functionality for the circuit interrupter based on the second signal output responsive to the primary current being determined to be less than or equal to the threshold level; and provide a seed current value to the active integrator based on the first signal output.
A method for removing a material covering an alignment mark on a substrate, comprising: directing a focused beam of noble gas ions extracted from a plasma ion source at the material covering an alignment mark such that the focused ion beam is directed at an angle of between 40 degrees and 80 degrees relative to the substrate surface normal; and removing said material by focused ion beam sputtering without using an etch assisting gas. directing a focused beam of noble gas ions extracted from a plasma ion source at the material covering an alignment mark such that the focused ion beam is directed at an angle of between 40 degrees and 80 degrees relative to the substrate surface normal; and removing said material by focused ion beam sputtering without using an etch assisting gas.