mhurhangee/ep-ind-claims huggingface dataset:
A laminated base material comprises a lamination and integration of prepreg base materials each of which comprises many reinforcing fibers arranged substantially in one direction and a matrix resin adhered to said reinforcing fibers, wherein arranging directions of said reinforcing fibers between one and another laminated prepreg base materials have at least two directions different each other; wherein at least one of said laminated prepreg base materials is formed with a prepreg base material that has, throughout the whole surface, many incisions each extending in a direction crossing the reinforcing fibers, wherein substantially all of the reinforcing fibers are divided by the incisions, and wherein a length of each of reinforcing fiber segments formed by the incisions is in the range of 10 to 100 mm, a thickness of the prepreg base material is in the range of 30 to 300 μm, and a fiber volume content (Vf) of the reinforcing fibers is in the range of 45 to 65%, wherein all of the reinforcing fiber segments have substantially the same length, wherein the absolute value of an oblique angle (Θb) of each of said incisions in a face of the at least one prepreg base material from the arranging direction of said reinforcing fibers is in the range of 2 to 25°, and wherein each of said incisions is in the form of a slit segment having a certain length, and when said slit segment is projected in the arranging direction of said reinforcing fibers, a projected length (Ws) of said slit segment in the perpendicular direction to the arranging direction of said reinforcing fibers is in the range of 30 μm to 1.5 mm. wherein at least one of said laminated prepreg base materials is formed with a prepreg base material that has, throughout the whole surface, many incisions each extending in a direction crossing the reinforcing fibers, wherein substantially all of the reinforcing fibers are divided by the incisions, and wherein a length of each of reinforcing fiber segments formed by the incisions is in the range of 10 to 100 mm, a thickness of the prepreg base material is in the range of 30 to 300 μm, and a fiber volume content (Vf) of the reinforcing fibers is in the range of 45 to 65%, wherein all of the reinforcing fiber segments have substantially the same length, wherein the absolute value of an oblique angle (Θb) of each of said incisions in a face of the at least one prepreg base material from the arranging direction of said reinforcing fibers is in the range of 2 to 25°, and wherein each of said incisions is in the form of a slit segment having a certain length, and when said slit segment is projected in the arranging direction of said reinforcing fibers, a projected length (Ws) of said slit segment in the perpendicular direction to the arranging direction of said reinforcing fibers is in the range of 30 μm to 1.5 mm.
A computer-implemented method for performing stability analysis for a digital motor controller, the method comprising: receiving a reference signal to be injected into a digital speed control loop, wherein the reference signal is a digital sinusoidal noise signal; controlling, by a hardware description language, VHDL, component, the injection of the reference signal into the digital control loop through a field programmable gate array, FPGA, hardware interface; providing the reference signal to the digital speed control loop to determine a performance of the digital motor controller, wherein the reference signal is generated within the digital motor controller and is controlled by the VHDL component, wherein the VHDL component is embedded within the digital motor controller; receiving a feedback signal, at the FPGA hardware interface, from the digital speed control loop based on the reference signal; comparing the reference signal to the feedback signal to evaluate the performance of the digital motor controller; and exporting, by a system comprising the FPGA hardware interface and the digital motor controller, a result of the comparing by the FPGA hardware interface to indicate the performance of the digital motor controller. receiving a reference signal to be injected into a digital speed control loop, wherein the reference signal is a digital sinusoidal noise signal; controlling, by a hardware description language, VHDL, component, the injection of the reference signal into the digital control loop through a field programmable gate array, FPGA, hardware interface; providing the reference signal to the digital speed control loop to determine a performance of the digital motor controller, wherein the reference signal is generated within the digital motor controller and is controlled by the VHDL component, wherein the VHDL component is embedded within the digital motor controller; receiving a feedback signal, at the FPGA hardware interface, from the digital speed control loop based on the reference signal; comparing the reference signal to the feedback signal to evaluate the performance of the digital motor controller; and exporting, by a system comprising the FPGA hardware interface and the digital motor controller, a result of the comparing by the FPGA hardware interface to indicate the performance of the digital motor controller.
A MAX phase material, wherein a molecular formula of the MAX phase material is represented as M n+1 (A z A' 1-z) h X n, wherein A is Zn, M is selected from group IIIB, IVB, VB or VIB elements, A' is selected from group IIIA, IVA elements, X is selected from C or N elements, n is 1, 2 or 3, z=1, h is a number of (A z A' 1-z) layers of atoms located between M n+1 X n unit layers, and h is 1.
A method for mitigating Intermodulation, IM, interference, comprising: operating a first receiver of a communication device in accordance with a given gain setting; operating a second receiver of a communication device with a lower linearity as compared to that of the first receiver; continuously or periodically monitoring the performance of demodulators of the first receiver and the second receiver; obtaining at least one demodulation performance metric associated with the second receiver; analyzing the at least one demodulation performance metric associated with the second receiver for determining if the communication device is under an influence of IM interference; when the communication device is under an influence of IM interference, determining an improved level of gain to be applied to (i) a variable attenuator, VA, of the first receiver, and/or (ii) a variable low noise amplifier, LNA, of the first receiver; selectively adjusting an amount of gain being applied by the variable attenuator or variable gain low noise amplifier of the first receiver based on the improved level attenuation. operating a first receiver of a communication device in accordance with a given gain setting; operating a second receiver of a communication device with a lower linearity as compared to that of the first receiver; continuously or periodically monitoring the performance of demodulators of the first receiver and the second receiver; obtaining at least one demodulation performance metric associated with the second receiver; analyzing the at least one demodulation performance metric associated with the second receiver for determining if the communication device is under an influence of IM interference; when the communication device is under an influence of IM interference, determining an improved level of gain to be applied to (i) a variable attenuator, VA, of the first receiver, and/or (ii) a variable low noise amplifier, LNA, of the first receiver; (i) a variable attenuator, VA, of the first receiver, and/or (ii) a variable low noise amplifier, LNA, of the first receiver; selectively adjusting an amount of gain being applied by the variable attenuator or variable gain low noise amplifier of the first receiver based on the improved level attenuation.
Arc quenching chamber of an electrical protection device comprising an arc forming chamber enclosing a fixed contact and a mobile contact, which, at the moment of their separation, form an arc between them, said arc forming chamber communicating with the inlet of a second chamber, called arc extinguishing chamber, said arc extinguishing chamber comprising a stack of cooling elements extending substantially parallel to one another, said chamber comprising a so-called balancing wall, solid over at least its central part, said wall being situated downstream of the arc extinguishing chamber, characterized that this wall is conformed and arranged relative to the arc extinguishing chamber, so as to slow down the exhaust flow of the quenching gases on the side (i) of the arc extinguishing chamber where the gases go first, this side being situated opposite the fixed contact, and to promote the flow of the exhaust gas flows on the side (j) opposite the preceding one, and in that the abovementioned wall is closer to the arc extinguishing chamber on the side (i) where the exhaust gases go first and moves away from said chamber with distance away from this side of the chamber, so as to be away from said chamber on the side (j) opposite the preceding one (i), of said arc extinguishing chamber.
Device for moving at least one rotary sprayer for washing or drying appliances, which is adapted to rotate about a first axis; said movement device comprises: • an arm enabled to rotate about a second axis, on which said rotary sprayer is rotatably mounted; • at least one actuating device, for rotating said arm about said second axis, • said arm: - is adapted to rotate by 360° - is asymmetric, and - comprises only one rotary sprayer mounted in the proximity of a peripheral portion of the same arm; • said actuating device, connected in the proximity of a coupling portion of the arm, selectively rotates the same arm, for the purpose of positioning said rotary sprayer at desired angles of rotation of the arm about said second axis; said actuating device comprises: • a motor, and • at least one motion transmission mechanism for transmitting motion from said motor to said at least one arm; said actuating device is connected to the coupling portion of the arm; characterized in that said motion transmission mechanism comprises a shaft fitted on one end to the coupling portion of the arm and on the opposite end to the shaft of the motor. • an arm enabled to rotate about a second axis, on which said rotary sprayer is rotatably mounted; • at least one actuating device, for rotating said arm about said second axis, • said arm: - is adapted to rotate by 360° - is asymmetric, and - comprises only one rotary sprayer mounted in the proximity of a peripheral portion of the same arm; - is adapted to rotate by 360° - is asymmetric, and - comprises only one rotary sprayer mounted in the proximity of a peripheral portion of the same arm; • said actuating device, connected in the proximity of a coupling portion of the arm, selectively rotates the same arm, • a motor, and • at least one motion transmission mechanism for transmitting motion from said motor to said at least one arm;
Process for producing rigid PUR/PIR foams by reaction of a reaction mixture containing A1 an isocyanate-reactive component A2 blowing agent A3 catalyst A4 optionally additive A5 flame retardant B an isocyanate component, characterized in that the flame retardant A5 contains a phosphinate of formula M[ 2 PO 2] n, wherein R represents at each occurrence H, C1- to C4-(hydroxy)alkyl or benzyl, M is an element from main groups 1 to 3, with the exception of hydrogen, and n is the number of the main group of M, and the proportion of the phosphinate of formula is 0.1% to 15% by weight based on the total mass of components A1 to A5. A1 an isocyanate-reactive component A2 blowing agent A3 catalyst A4 optionally additive A5 flame retardant B an isocyanate component, R represents at each occurrence H, C1- to C4-(hydroxy)alkyl or benzyl, M is an element from main groups 1 to 3, with the exception of hydrogen, and n is the number of the main group of M,
A method of operating a gas turbine engine (2, 3) in a multi-engine aircraft, the gas turbine engine (2, 3) having an engine shaft mounted for rotation in a bearing, and a gearbox connected to the engine shaft for torque transmission therebetween, characterized in that it comprises axially preloading the bearing using an axially biasing element disposed between the gas turbine engine (2, 3) and the gearbox, wherein the axially biasing element reacts against the gearbox to exert an axial preload force on the bearing and the engine shaft of the gas turbine engine (2, 3).
A mounting layer configured to mount at least two light emitting semiconductor devices, the mounting layer comprising a sheet of material, the mounting layer further comprising a corner protrusion and an edge protrusion configured to align the mounting layer to a cooling structure, the mounting layer further comprising aligning holes defining mounting areas configured to mount the light emitting semiconductor devices, the sheet of material being configured to be directly bonded or welded to the cooling structure.
A vehicle vibration reduction system including: at least one excitation device for generating an excitation force; at least one vibration detection device for detecting vibration at a predetermined position in the vehicle; and a control device configured to calculate a frequency from a rotational speed signal of a generation source of a control object, generate a reference signal whose frequency is a real number multiple of a frequency of the rotational speed signal, update an adaptive filter (33, 34) based on a signal obtained from the vibration detection device and the reference signal and, by using the adaptive filter (33, 34), control the excitation device to generate the excitation force, such that the vibration generated at the predetermined position in the vehicle is reduced, wherein the control device, when the rotational speed at the generation source of the control object varies, sets a value of the adaptive filter (33, 34) of a previous control result corresponding to the frequency to the adaptive filter (33, 34) as a initial value and, by using the adaptive filter (33, 34) updated from the initial value, controls the excitation device to generate the excitation force, such that the vibration generated at the predetermined position in the vehicle is reduced.
A method performed by a wireless device for performing Packet Data Convergence Protocol, PDCP, entity re-establishment, wherein the wireless device is acting as a Packet Data Convergence Protocol, PDCP, receiving entity, the method comprising: receiving a request to perform PDCP entity re-establishment; responsive to the request, resetting a header compression protocol by discarding any contexts associated with the header compression protocol; refraining from transmitting feedback associated with the header compression protocol to a PDCP transmitting entity; and resuming generation and transmission of feedback associated with the header compression protocol responsive to establishing a new context associated with the header compression protocol after completion of the PDCP entity re-establishment. receiving a request to perform PDCP entity re-establishment; responsive to the request, resetting a header compression protocol by discarding any contexts associated with the header compression protocol; refraining from transmitting feedback associated with the header compression protocol to a PDCP transmitting entity; and resuming generation and transmission of feedback associated with the header compression protocol responsive to establishing a new context associated with the header compression protocol after completion of the PDCP entity re-establishment.
A baler comprising a baling chamber that includes a bale-forming channel having an inlet end and an outlet end, a plunger mounted within the channel for compressing bale material in the channel and driving the compressed bale material towards the outlet end of the channel, and a rotary drive mechanism for driving reciprocating movement of the plunger; characterised in that the baler includes an additional drive means (22, D2) for driving the compressed bale material towards the outlet end of the channel, said additional drive means (22, D2) being configured to engage one or more side regions of the compressed bale material and drive the compressed bale material towards the outlet end of the channel during successive compression cycles of the plunger, thereby reducing torque in the rotary drive mechanism.
A method of classifying a sample of a patient suffering from or at risk of developing Alzheimer's Disease, wherein said sample is a blood sample, said method comprising the steps of: a) determining in said sample an expression level of the miRNA having the sequence SEQ ID NO 59, and of at least one additional miRNA selected from the group consisting of miRNAs having the sequence SEQ ID NO 65, SEQ ID NO 1 to SEQ ID NO 58, SEQ ID NO 60 to SEQ ID NO 64 and SEQ ID NO 66 to SEQ ID NO 170, b) comparing the pattern of expression level(s) determined in step a) with one or several reference pattern(s) of expression levels of the miRNA having the sequence SEQ ID NO 59 and of the at least one additional miRNA selected from the group consisting of miRNAs with the sequence SEQ ID NO 65, SEQ ID NO 1 to SEQ ID NO 58, SEQ ID NO 60 to SEQ ID NO 64 and SEQ ID NO 66 to SEQ ID NO 170 determined in at least one healthy subject; and c) classifying the sample of said patient from the outcome of the comparison in step b) into one of at least two classes, wherein said sample is associated with at least one of at least two categories comprising "high risk" and "low risk". a) determining in said sample an expression level of the miRNA having the sequence SEQ ID NO 59, and of at least one additional miRNA selected from the group consisting of miRNAs having the sequence SEQ ID NO 65, SEQ ID NO 1 to SEQ ID NO 58, SEQ ID NO 60 to SEQ ID NO 64 and SEQ ID NO 66 to SEQ ID NO 170, b) comparing the pattern of expression level(s) determined in step a) with one or several reference pattern(s) of expression levels of the miRNA having the sequence SEQ ID NO 59 and of the at least one additional miRNA selected from the group consisting of miRNAs with the sequence SEQ ID NO 65, SEQ ID NO 1 to SEQ ID NO 58, SEQ ID NO 60 to SEQ ID NO 64 and SEQ ID NO 66 to SEQ ID NO 170 determined in at least one healthy subject; and c) classifying the sample of said patient from the outcome of the comparison in step b) into one of at least two classes, wherein said sample is associated with at least one of at least two categories comprising "high risk" and "low risk".
Assembly for filing a saw chain, with a guide for a file holder, a file holder, a file and a saw chain, wherein the saw chain has cutting teeth (7, 8), wherein a depth limiter is running in front of each cutting tooth (7, 8), wherein the file holder is supported on the cutting tooth (7, 8) to be filed and on the depth limiter running in front of said cutting tooth (7, 8) and guided at an angle (ε) to the longitudinal direction of the saw chain, wherein the guide has a fit-on part which can be fixed to the saw chain, characterised in that the guide has a slide, in that the slide forms a receptacle for the file holder, in that the slide is mounted on the fit-on part for displacement transversely to the longitudinal direction of the saw chain in a displacement direction, so that the slide with the file holder can easily be repositioned at increasing wear of the cutting tooth (7, 8), in that the displacement direction is perpendicular to the top edge (50, 51) of the cutting edge (25, 45) of the cutting tooth (7, 8) to be filed if the guide is placed on the saw chain, and in that the file holder is guided on the slide at an angle (ε) to the longitudinal direction of the saw chain.
A composition comprising: from about 80% to about 98% by weight of two polyhydric alcohols selected from the group consisting of: glycerin, alkylene glycol, polyethylene glycol; from about 1 to about 5% by weight insulating agent comprising honey or esters of isopropyl alcohol and saturated high molecular weight fatty acids; and less than about 5% by weight water.
A filter assembly (100, 500), suitable for crankcase ventilation, comprising: (a) a housing (101, 501) including: a housing top (105, 505); a housing bottom (103, 503); a gas flow inlet arrangement (115, 515); a gas flow outlet arrangement (116, 516); the housing bottom (103, 503) including a liquid drain aperture (128, 528) therethrough; and, a guide projection (240, 575) on the housing bottom defining a non-circular perimeter cross-section; (b) a filter cartridge (130, 530) operably received within the housing (101, 501); (i) the filter cartridge including a seal member (155, 555) thereon removably sealed to the housing (101, 501); characterized by (ii) the filter cartridge (130, 530) including a lower end member (141, 541) with a closed receiver (205, 569) therein projecting into a filter cartridge interior (145, 545); and (iii) the guide projection (240, 575) extending into the closed central receiver (205, 569) and providing a guide facilitating installation. (a) a housing (101, 501) including: a housing top (105, 505); a housing bottom (103, 503); a gas flow inlet arrangement (115, 515); a gas flow outlet arrangement (116, 516); the housing bottom (103, 503) including a liquid drain aperture (128, 528) therethrough; and, a guide projection (240, 575) on the housing bottom defining a non-circular perimeter cross-section; (b) a filter cartridge (130, 530) operably received within the housing (101, 501); (i) the filter cartridge including a seal member (155, 555) thereon removably sealed to the housing (101, 501); characterized by (ii) the filter cartridge (130, 530) including a lower end member (141, 541) with a closed receiver (205, 569) therein projecting into a filter cartridge interior (145, 545); and (iii) the guide projection (240, 575) extending into the closed central receiver (205, 569) and providing a guide facilitating installation. (i) the filter cartridge including a seal member (155, 555) thereon removably sealed to the housing (101, 501); (ii) the filter cartridge (130, 530) including a lower end member (141, 541) with a closed receiver (205, 569) therein projecting into a filter cartridge interior (145, 545); and (iii) the guide projection (240, 575) extending into the closed central receiver (205, 569) and providing a guide facilitating installation.