mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a textile unidirectional fabric, wherein at least one flat layer of mutually parallel juxtaposed multifilament reinforcement threads are interwoven with transverse threads, wherein the adjacent threads of the multifilament reinforcement threads are predominantly in contact with each other within one layer, wherein transverse threads with a core-sheath structure are used as the transverse threads, wherein the transverse threads have a first component constituting the sheath and a second component constituting the core, wherein the first component has a lower melting temperature than the second component, the first component is a meltable thermoplastic polymer material, and the juxtaposed multifilament reinforcement threads are bonded together by melt bonding via the first component of the transverse threads, wherein the transverse threads have a titre of 10 to 40 tex, measured according to EN ISO 2060: 1995, and, by the interweaving of the transverse threads with the multifilament reinforcement threads within the flat layer of juxtaposed multifilament reinforcement threads, alleys are formed through which a permeability of 10 to 600 l/dm 2 /min, measured according to EN ISO 9237, can be set, wherein the alleys are only created very locally at crossing points between multifilament reinforcement threads and transverse threads by the interweaving.
A medical line securement system comprising: a medical article; two anchor pads, each including a lower adhesive surface configured to attach to an epidermal layer of a patient; and a retainer comprising, a body member having a channel formed therethrough about a channel axis, the channel being configured to retain at least a portion of the medical article and having a longitudinal access opening disposed on an underside of the body member to allow at least ingress of the portion of the medical article into the channel, and two supports attached to the two anchor pads, characterized in that the retainer comprises a spine (145, 610) extending parallel to the channel axis and having an abutment on a distal end of the spine (145, 610), the abutment extending generally normal to the channel axis and configured to inhibit longitudinal movement of the medical article. a medical article; two anchor pads, each including a lower adhesive surface configured to attach to an epidermal layer of a patient; and a retainer comprising, a body member having a channel formed therethrough about a channel axis, the channel being configured to retain at least a portion of the medical article and having a longitudinal access opening disposed on an underside of the body member to allow at least ingress of the portion of the medical article into the channel, and two supports attached to the two anchor pads, characterized in that the retainer comprises a spine (145, 610) extending parallel to the channel axis and having an abutment on a distal end of the spine (145, 610), the abutment extending generally normal to the channel axis and configured to inhibit longitudinal movement of the medical article. a body member having a channel formed therethrough about a channel axis, the channel being configured to retain at least a portion of the medical article and having a longitudinal access opening disposed on an underside of the body member to allow at least ingress of the portion of the medical article into the channel, and two supports attached to the two anchor pads, characterized in that the retainer comprises a spine (145, 610) extending parallel to the channel axis and having an abutment on a distal end of the spine (145, 610), the abutment extending generally normal to the channel axis and configured to inhibit longitudinal movement of the medical article.
A method for controlling a feedback torque actuator in a steering system, incorporating the following steps for feedback torque control: - measurement of at least one input signal with the aid of a sensor, - determination of a steering angle from the above-mentioned input signal, - transformation of the above-mentioned input signal of a steering angle to a target steering-wheel torque, and - control of the mentioned feedback torque actuator via a closed loop current control to achieve said target steering-wheel torque, so that the steering-wheel torque will be close to the above-mentioned target steering-wheel torque whereby acceptable steering feel is achieved, characterised in that it comprises achieving the steering-wheel torque being close to the target steering-wheel torque by achieving a low torque in a column axle arranged below the feedback torque actuator of the steering system. - measurement of at least one input signal with the aid of a sensor, - determination of a steering angle from the above-mentioned input signal, - transformation of the above-mentioned input signal of a steering angle to a target steering-wheel torque, and - control of the mentioned feedback torque actuator via a closed loop current control to achieve said target steering-wheel torque,
A laser processing method including the steps of securing a holding member holding a wafer-like object to be processed onto a suction table of a vacuum chuck by suction while interposing a porous sheet therebetween, and forming a modified region by irradiating the object with laser light along a line to cut, characterised by forming the modified region by irradiating the object with laser light while locating a converging point within the object along the line to cut within the object, thereby forming a starting point region for cutting; wherein the starting point region for cutting refers to a region which is a start point for cutting when the object is cut by a strong bending stress acting on the object held by the holding member; wherein the sheet has a Young's modulus lower than that of the suction table.
A compound according to Formula for use in the treatment of a cancerous disease: wherein R 1 is H, R 2 and R 4 are methyl, R 3 is -C CH 3 or -C OCH 3, L is -C OCH 2 - or -C CH 2 S-, and X is selected from the group consisting of wherein R 6, R 7, R 8 and R 9 are independently H, halogen, C 1 -C 3 alkyl, -CN, -CF 3, -OR 11 or Ar, and R 10 and R 11 are independently H or C 1 -C 3 alkyl. R 1 is H, R 2 and R 4 are methyl, R 3 is -C CH 3 or -C OCH 3, L is -C OCH 2 - or -C CH 2 S-, and X is selected from the group consisting of wherein R 6, R 7, R 8 and R 9 are independently H, halogen, C 1 -C 3 alkyl, -CN, -CF 3, -OR 11 or Ar, and R 10 and R 11 are independently H or C 1 -C 3 alkyl. R 6, R 7, R 8 and R 9 are independently H, halogen, C 1 -C 3 alkyl, -CN, -CF 3, -OR 11 or Ar, and R 10 and R 11 are independently H or C 1 -C 3 alkyl.
A device for depositing a layer on a substrate, which is moved in a moving direction in a process chamber transverse to the direction of extent of a gas inlet element during the coating process, wherein the gas inlet element features at least one process gas distribution chamber (5, 6; 5', 6') with an infeed opening (9, 9') for feeding in at least one starting material and with a process gas outlet zone (14,14'), which extends over the entire width of the moving path of the substrate and points toward the substrate, for the outflow of a process gas flow (a, a') containing the starting material, wherein, parallel to the direction of extent of the first gas outlet zone, a second gas outlet zone of a second gas distribution chamber is arranged in front of the at least one process gas outlet zone referred to the moving direction of the substrate for the outflow of a second gas flow (b) and a third gas outlet zone of a third gas distribution chamber is arranged behind the at least one process gas outlet zone referred to the moving direction of the substrate for the outflow of a third gas flow (c), and wherein the second and third gas outlet zones (27, 28) are arranged directly adjacent to the at least one process gas outlet zone and feature gas heating apparatuses, characterized in that the gas heating apparatuses are formed by electrically conductive, open-pored solid bodies that can be heated by means of electrical energy and are arranged in the gas distribution chambers (5, 6, 5', 6'; 21, 22), which are separated from one another by electrically insulating partition walls (12, 13), wherein at least a section of the open-pored solid body arranged in the process gas distribution chamber(5, 6; 5', 6') on the gas inlet side forms an evaporation apparatus for a solid or liquid starting material that can be fed in through the infeed opening.
System for applying a building material, the system comprising: a first component of the building material, the first component comprising a first ingredient (3.1) and a second ingredient (3.2); a second component of the building material; a first mixer (5.1) for mixing the first ingredient (3.1) and the second ingredient (3.2) of the first component; a supply device for supplying the first ingredient (3.1) of the first component to the first mixer (5.1); a movement device for changing a site of application in a space; and a second mixer (5.2) for mixing the first component and the second component; wherein the second mixer (5.2) is arranged on the movement device, wherein the second mixer (5.2) is movable by the movement device, characterized in that the second mixer (5.2) comprises a stirring shaft which is equipped with stirring elements on a first portion and on which a conveying element is arranged on a second portion. a first component of the building material, the first component comprising a first ingredient (3.1) and a second ingredient (3.2); a second component of the building material; a first mixer (5.1) for mixing the first ingredient (3.1) and the second ingredient (3.2) of the first component; a supply device for supplying the first ingredient (3.1) of the first component to the first mixer (5.1); a movement device for changing a site of application in a space; and a second mixer (5.2) for mixing the first component and the second component; wherein the second mixer (5.2) is arranged on the movement device, wherein the second mixer (5.2) is movable by the movement device, characterized in that the second mixer (5.2) comprises a stirring shaft which is equipped with stirring elements on a first portion and on which a conveying element is arranged on a second portion.
An easy-to-open, non-thermally formed packaging made of a multilayer film comprising (a) a monoaxially orientated, sealable layer (a) based on at least one foamed, thermoplastic olefin homo- or copolymer and (b) a monoaxially longitudinally orientated substrate layer (b) based on at least one thermoplastic polymer and (c) optionally a barrier layer, where the longitudinal orientation ratio of the layer (a) is in the range from 1:3 to 1:10. (a) a monoaxially orientated, sealable layer (a) based on at least one foamed, thermoplastic olefin homo- or copolymer and (b) a monoaxially longitudinally orientated substrate layer (b) based on at least one thermoplastic polymer and (c) optionally a barrier layer,
A rotor blade for a wind turbine, comprising: a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint, each of the first and second blade segments comprising at least one shell member defining an airfoil surface; and, one or more pin joints for connecting the first and second blade segments at the chord-wise joint, the one or more pin joints comprising one or more pin joint tubes (56, 58) received within one or more pin joint slots (62, 64), the one or more pin joint slots secured within a load bearing block, wherein the one or more pin joint slots are constructed of a first material having a first coefficient of thermal expansion, the load bearing block constructed of a second material having a second coefficient of thermal expansion, characterized by the first and second coefficients of thermal expansion being equal or within plus or minus 20% so as to maintain contact between the one or more pin joint slots and the load bearing block during operational temperature changes of the wind turbine. a first blade segment and a second blade segment extending in opposite directions from a chord-wise joint, each of the first and second blade segments comprising at least one shell member defining an airfoil surface; and, one or more pin joints for connecting the first and second blade segments at the chord-wise joint, the one or more pin joints comprising one or more pin joint tubes (56, 58) received within one or more pin joint slots (62, 64), the one or more pin joint slots secured within a load bearing block, wherein the one or more pin joint slots are constructed of a first material having a first coefficient of thermal expansion, the load bearing block constructed of a second material having a second coefficient of thermal expansion, characterized by the first and second coefficients of thermal expansion being equal or within plus or minus 20% so as to maintain contact between the one or more pin joint slots and the load bearing block during operational temperature changes of the wind turbine.
A soldering device for fastening an electrically conductive strip to a straight busbar of a solar cell along a straight soldering line by means of inductive soldering, comprising: a plurality of hold-down elements (P1-P11; 230, 231) for holding down the strip on a surface of the busbar, wherein the hold-down elements (P1-P11; 230, 231) are arranged in a row along the soldering line one after the other; an induction antenna (20A; 20B; 20C; 20D; 20E; 20F) having a current path (21A; 21B; 21C; 21D; 21E; 21F) extending along the soldering line for an electrical alternating current, wherein the electrical alternating current is carried along the current path (21A; 21B; 21C; 21D; 21E; 21F) in such a way that it generates a magnetic alternating field (H1, H2) in the soldering line and/or in the surroundings of the soldering line, characterized in that the current path (21A; 21B; 21C; 21D; 21E; 21F) extends along a plurality of segments (L1-L10) of the soldering line arranged in a row one after the other, such that the magnetic alternating field in at least one of the segments of the soldering line is in phase opposition to the magnetic alternating field in at least one other one of the segments of the soldering line. a plurality of hold-down elements (P1-P11; 230, 231) for holding down the strip on a surface of the busbar, wherein the hold-down elements (P1-P11; 230, 231) are arranged in a row along the soldering line one after the other; an induction antenna (20A; 20B; 20C; 20D; 20E; 20F) having a current path (21A; 21B; 21C; 21D; 21E; 21F) extending along the soldering line for an electrical alternating current, wherein the electrical alternating current is carried along the current path (21A; 21B; 21C; 21D; 21E; 21F) in such a way that it generates a magnetic alternating field (H1, H2) in the soldering line and/or in the surroundings of the soldering line, the current path (21A; 21B; 21C; 21D; 21E; 21F) extends along a plurality of segments (L1-L10) of the soldering line arranged in a row one after the other, such that the magnetic alternating field in at least one of the segments of the soldering line is in phase opposition to the magnetic alternating field in at least one other one of the segments of the soldering line.
A process for continuously producing an elastic composite film provided with an expanded, sintered, porous film substantially consisting of polytetrafluoroethylene and an elastomeric resin layer formed on at least one side of the expanded, sintered, porous film, comprising the steps of: continuously forming the elastomeric resin layer on at least one side of the expanded, sintered, porous film; continuously elongating the multilayer film obtained in at less than the yield point of the expanded, sintered, porous film and at an elongation factor of 1.3 times or more in the biaxial directions, or in the uniaxial direction without contracting in the direction perpendicular to the direction of elongation; and relaxing the elongated multilayer film obtained in above. continuously forming the elastomeric resin layer on at least one side of the expanded, sintered, porous film; continuously elongating the multilayer film obtained in at less than the yield point of the expanded, sintered, porous film and at an elongation factor of 1.3 times or more in the biaxial directions, or in the uniaxial direction without contracting in the direction perpendicular to the direction of elongation; and relaxing the elongated multilayer film obtained in above.
Fetal movement monitoring apparatus comprising: a first sensor device arranged to be applied to a mother's abdomen for detection of fetal movements and to output a signal comprising one or more record of said fetal movements; a second sensor device by which a user can input a record of perceived fetal movements; and one or more processor under the control of machine readable instructions arranged to compare the output of the first sensor device and the user's input via the second sensor device and to output a log of fetal movements over time based upon said comparison; wherein the processor has a first learning or calibration mode of operation in which it is configured to: compare the user's input via the second sensor device with the signal output from the first sensor device; and determine a confidence value associated with said comparison; and wherein the processor further has a second or normal mode of operation, in which it is configured to: process only the signal output from the first sensor device; and output a log of the fetal movements based on the signal output from the first sensor device and the confidence value. a first sensor device arranged to be applied to a mother's abdomen for detection of fetal movements and to output a signal comprising one or more record of said fetal movements; a second sensor device by which a user can input a record of perceived fetal movements; and one or more processor under the control of machine readable instructions arranged to compare the output of the first sensor device and the user's input via the second sensor device and to output a log of fetal movements over time based upon said comparison; wherein the processor has a first learning or calibration mode of operation in which it is configured to: compare the user's input via the second sensor device with the signal output from the first sensor device; and determine a confidence value associated with said comparison; compare the user's input via the second sensor device with the signal output from the first sensor device; and determine a confidence value associated with said comparison; and wherein the processor further has a second or normal mode of operation, in which it is configured to: process only the signal output from the first sensor device; and output a log of the fetal movements based on the signal output from the first sensor device and the confidence value. process only the signal output from the first sensor device; and output a log of the fetal movements based on the signal output from the first sensor device and the confidence value.
A process of manufacturing a cathode material with oxygen vacancy, the process comprising steps of: providing a lithium metal phosphate raw material, wherein the lithium metal phosphate raw material is a mixture of a lithium-containing first material, a metal-containing second material and a phosphate-containing third material, wherein 0.1~5 mol% of phosphate in the third material is substituted by an anionic group [XO 3 n-], wherein the anionic group [XO 3 n-] represents PO 3 3-, SO 3 2- or NO 3 -; allowing the first material, the second material and the third material to carry out a dry processing reaction or a wet processing reaction; and thermally treating the first material, the second material and the third material by sintering, so that a lithium metal phosphate compound with oxygen vacancy is produced. providing a lithium metal phosphate raw material, wherein the lithium metal phosphate raw material is a mixture of a lithium-containing first material, a metal-containing second material and a phosphate-containing third material, wherein 0.1~5 mol% of phosphate in the third material is substituted by an anionic group [XO 3 n-], wherein the anionic group [XO 3 n-] represents PO 3 3-, SO 3 2- or NO 3 -; allowing the first material, the second material and the third material to carry out a dry processing reaction or a wet processing reaction; and thermally treating the first material, the second material and the third material by sintering, so that a lithium metal phosphate compound with oxygen vacancy is produced.
A method for measuring dimensionality of a component, the method comprising: collecting at least a first plurality of images from a first camera of a first precision countersink of the component, wherein each of said plurality of images is collected using a different light source; generating a composite image of said first precision countersink using said first plurality of images; calculating positional and process refinement parameters for one or more numerically controlled mechanisms associated with said first precision countersink, based on dimensionality of said first precision countersink in said generated composite image; and feeding back said positional and process refinement parameters to provide adaptive control of said one or more numerically controlled mechanisms. collecting at least a first plurality of images from a first camera of a first precision countersink of the component, wherein each of said plurality of images is collected using a different light source; generating a composite image of said first precision countersink using said first plurality of images; calculating positional and process refinement parameters for one or more numerically controlled mechanisms associated with said first precision countersink, based on dimensionality of said first precision countersink in said generated composite image; and feeding back said positional and process refinement parameters to provide adaptive control of said one or more numerically controlled mechanisms.
A data obtaining method by an inverter that controls a synchronous electric motor: calculating, by a position/speed calculation unit of the inverter, an electric angle of the synchronous electric motor from a current value between the synchronous electric motor and the inverter, wherein the method further characterized by acquiring data for a plurality of electric angles as synchronous monitor data by sampling internal data obtained from the inverter for controlling the synchronous electric motor in synchronization with electric angle information, storing the synchronization monitor data in a monitor data storage unit. calculating, by a position/speed calculation unit of the inverter, an electric angle of the synchronous electric motor from a current value between the synchronous electric motor and the inverter, wherein the method further characterized by acquiring data for a plurality of electric angles as synchronous monitor data by sampling internal data obtained from the inverter for controlling the synchronous electric motor in synchronization with electric angle information, storing the synchronization monitor data in a monitor data storage unit.
A centrifugal compressor comprising a plurality of forward swept partial entry rotor blades each having a forward face in the direction of rotation, and further comprising a diffuser having a plurality of diffuser passage walls; characterized in that the rotor blades each include an exit portion extending substantially tangentially to the rotor circumference and the diffuser passage walls each extend substantially tangentially to the rotor circumference and are positioned sufficiently close to the exit portion in a radial direction to guide the air flow in a generally tangential direction.