mhurhangee/patent-ind-claim-en huggingface dataset:
Motor vehicle front module comprising a dashboard, structural elements of the bodyshell of the vehicle to which elements the dashboard is fixed, an apron forming an element with a substantially horizontal surface which is elongate in the transverse direction of the vehicle, the apron being positioned between a front tip of the dashboard and a windscreen of the vehicle, characterized in that it comprises an apron support (SP) the dimensions of which are reduced in comparison with the apron (FC) at least in the transverse direction (Y) and/or in the longitudinal direction (X) of the vehicle, said apron support (SP) being a component with a substantially horizontal surface, said apron support (SP) being fixed directly to said apron (FC) and to said dashboard (DB) and secured to the bodyshell of said vehicle (VEH).
A memory comprising: a plurality of bit cells arranged in a row; each bit cell comprising a write port and a read only port ; a write word line connected to the write ports of the plurality of bit cells; a first read word line connected only to the read only ports of a first subset of the plurality of bit cells; and a second read word line connected only to the read only ports of a second subset of the plurality of bit cells, wherein the first and second subsets are located in the same row of bit cells, and wherein the first and second subsets are different subsets, and wherein the bit cells of the first subset are interdigitated with the bit cells of the second subset. a plurality of bit cells arranged in a row; each bit cell comprising a write port and a read only port ; a write word line connected to the write ports of the plurality of bit cells; a first read word line connected only to the read only ports of a first subset of the plurality of bit cells; and a second read word line connected only to the read only ports of a second subset of the plurality of bit cells, wherein the first and second subsets are located in the same row of bit cells, and wherein the first and second subsets are different subsets, and wherein the bit cells of the first subset are interdigitated with the bit cells of the second subset.
A lamp assembly comprising: a housing including a bottom portion and side wall portions forming a light source mount portion in a longitudinal direction, a flange portion being connected to each front end of the side wall portions and forming a first insertion portion with an inner side surface thereof being open, and a second insertion portion provided on a bottom surface of the first insertion portion ; a lampshade provided therein with a light source (L), and coupled to the mount portion ; a translucent panel slidably coupled to the first insertion portion ; and a packing fitted in the second insertion portion , wherein in the light assembly, multiple light sources (L) are arranged in a line to have a predetermined length, characterized in that the lamp assembly further includes a press bar being inserted in the first insertion portion between an upper surface of the flange portion and the translucent panel and pressing the translucent panel and the packing, thereby fixing the translucent panel and endowing the packing with watertightness, wherein the housing further includes a first stop protrusion protruding backwards from the flange portion , and the press bar includes a first hook protrusion provided at an outer end thereof to be engaged with the first stop protrusion . a housing including a bottom portion and side wall portions forming a light source mount portion in a longitudinal direction, a flange portion being connected to each front end of the side wall portions and forming a first insertion portion with an inner side surface thereof being open, and a second insertion portion provided on a bottom surface of the first insertion portion ; a lampshade provided therein with a light source (L), and coupled to the mount portion ; a translucent panel slidably coupled to the first insertion portion ; and a packing fitted in the second insertion portion , wherein in the light assembly, multiple light sources (L) are arranged in a line to have a predetermined length, characterized in that the lamp assembly further includes a press bar being inserted in the first insertion portion between an upper surface of the flange portion and the translucent panel and pressing the translucent panel and the packing, thereby fixing the translucent panel and endowing the packing with watertightness, wherein the housing further includes a first stop protrusion protruding backwards from the flange portion , and the press bar includes a first hook protrusion provided at an outer end thereof to be engaged with the first stop protrusion .
Low thermal expansion glass-ceramic component, wherein the application temperature T A of the glass ceramic-component lies within in the range of -60° to 100°C, wherein the glass-ceramic component has a CTE(0;50) in the interval of 0 ± 15 ppb/K, more preferably in the interval of 0 ± 10 ppb/K, and a CTE(0;50) homogeneity over the entire glass-ceramic component of at most 3 ppb/K wherein the glass ceramic component comprises an LAS glass-ceramic with the following composition (in % by weight based on oxide) SiO 2 50 - 70 Al 2 O 3 17 - 32 P 2 O 5 3 - 12 Li 2 O 2 - 5 Na 2 O 0 - 2 K 2 O 0 - 2 MgO 0 - 2 CaO 0 - 4 BaO 0 - 5 SrO 0 - 2 ZnO 0 - 4 TiO 2 1 - 5 ZrO 2 0 - 5
A cosmetic composition comprising: a. a skin lightening additive which is 12-hydroxystearic acid and/or a salt thereof; b. a cosmetic carrier; and further comprising ricinoleic acid. a. a skin lightening additive which is 12-hydroxystearic acid and/or a salt thereof; b. a cosmetic carrier; and
A cascading selective microwave directional amplifier comprising: a set of multi-path interferometric Josephson directional amplifiers (302 1 ,..., 302 N ; 602 1 ,..., 602 N ) based on non degenerate three-wave-mixing Josephson parametric devices, MPIJDA, each Josephson amplifier device (302 1 ,..., 302 N ; 602 1 ,..., 602N) in the set having a corresponding operating bandwidth (BW 1 ,..., BWN) of microwave frequencies, wherein different operating bandwidths (BW 1 ,..., BW N ) have different corresponding center frequencies (f 1 ,..., f N ); and wherein forming the cascading comprises building a series coupling of all MPIJDA devices from the set, wherein the series coupling causes first Josephson amplifier device (302 1 ; 602 1 ) from the set to amplify a signal of a first frequency (f 1 ) from a frequency multiplexed microwave signal in a first signal flow direction through the series coupling and n th Josephson amplifier device (602 N ) from the set to amplify a signal of an n th frequency (f N ) in a second signal flow direction through the series, wherein the second signal flow direction is opposite of the first signal flow direction. a set of multi-path interferometric Josephson directional amplifiers (302 1 ,..., 302 N ; 602 1 ,..., 602 N ) based on non degenerate three-wave-mixing Josephson parametric devices, MPIJDA, each Josephson amplifier device (302 1 ,..., 302 N ; 602 1 ,..., 602N) in the set having a corresponding operating bandwidth (BW 1 ,..., BWN) of microwave frequencies, wherein different operating bandwidths (BW 1 ,..., BW N ) have different corresponding center frequencies (f 1 ,..., f N ); and wherein forming the cascading comprises building a series coupling of all MPIJDA devices from the set, wherein the series coupling causes first Josephson amplifier device (302 1 ; 602 1 ) from the set to amplify a signal of a first frequency (f 1 ) from a frequency multiplexed microwave signal in a first signal flow direction through the series coupling and n th Josephson amplifier device (602 N ) from the set to amplify a signal of an n th frequency (f N ) in a second signal flow direction through the series, wherein the second signal flow direction is opposite of the first signal flow direction.
A method, performed by a node , of controlling the node for joining a wireless network, comprising: controlling the node to wait for a predetermined length of time; receiving beacon messages communicated by nodes of the wireless network during the predetermined length of time; analysing the number of received beacon messages with respect to a congestion condition, and determining whether to control the node to join the wireless network based on the result of the analysis. controlling the node to wait for a predetermined length of time; receiving beacon messages communicated by nodes of the wireless network during the predetermined length of time; analysing the number of received beacon messages with respect to a congestion condition, and determining whether to control the node to join the wireless network based on the result of the analysis.
A retransfer printing method for transferring a printed image from a retransfer film to a surface of a card , comprising adhering the retransfer film containing the printed image to the surface of the card , and thereafter stripping all or a portion of the retransfer film from the surface of the card so that the printed image remains on the surface ; wherein stripping all or a portion of the retransfer film includes: stripping all or a portion of the retransfer film from a first portion of the surface of the card while a first tension is applied to the retransfer film and while transporting the retransfer film and the card at a first speed; characterized in that the method comprises: stripping all or a portion of the retransfer film from a second portion of the surface of the card while a second tension is applied to the retransfer film and while transporting the retransfer film and the card at a second speed; and wherein the first tension differs from the second tension, and the first speed differs from the second speed. adhering the retransfer film containing the printed image to the surface of the card , and thereafter stripping all or a portion of the retransfer film from the surface of the card so that the printed image remains on the surface ; wherein stripping all or a portion of the retransfer film includes: stripping all or a portion of the retransfer film from a first portion of the surface of the card while a first tension is applied to the retransfer film and while transporting the retransfer film and the card at a first speed; characterized in that the method comprises: stripping all or a portion of the retransfer film from a second portion of the surface of the card while a second tension is applied to the retransfer film and while transporting the retransfer film and the card at a second speed; and wherein the first tension differs from the second tension, and the first speed differs from the second speed. stripping all or a portion of the retransfer film from a second portion of the surface of the card while a second tension is applied to the retransfer film and while transporting the retransfer film and the card at a second speed; and wherein the first tension differs from the second tension, and the first speed differs from the second speed.
A device (102; 102a, 102b) for transferring heat between a first module and a second module , the device (102; 102a, 102b) comprising: • a holder for holding the second module , • a first unit configured and arranged to be thermally coupled to the first module , • a second unit configured and arranged to be movable in relation to the first unit and the holder , • a biasing apparatus (114.1, 114.2) configured and arranged for urging the second unit away from the first unit , thereby urging the second unit against the second module placed in the holder , and • a liquid- and vapor-based heat-transferring apparatus attached to the first unit and the second unit , wherein the liquid- and vapor-based heat-transferring apparatus is configured and arranged to thermally couple the second unit to the first unit , wherein the liquid- and vapor-based heat-transferring apparatus forms a helical shape, wherein the liquid- and vapor-based heat-transferring apparatus is part of the biasing apparatus (114.2), and wherein the helical heat-transferring apparatus (116, 114.2) is configured to urge the second unit away from the first unit , thereby urging the second unit against the second module placed in the holder . • a holder for holding the second module , • a first unit configured and arranged to be thermally coupled to the first module , • a second unit configured and arranged to be movable in relation to the first unit and the holder , • a biasing apparatus (114.1, 114.2) configured and arranged for urging the second unit away from the first unit , thereby urging the second unit against the second module placed in the holder , and • a liquid- and vapor-based heat-transferring apparatus attached to the first unit and the second unit , wherein the liquid- and vapor-based heat-transferring apparatus is configured and arranged to thermally couple the second unit to the first unit , wherein the liquid- and vapor-based heat-transferring apparatus forms a helical shape, wherein the liquid- and vapor-based heat-transferring apparatus is part of the biasing apparatus (114.2), and wherein the helical heat-transferring apparatus (116, 114.2) is configured to urge the second unit away from the first unit , thereby urging the second unit against the second module placed in the holder .
A signal-injecting device for injecting variable-frequency electrical probe signals (S P ) into a lightning protection system of a wind turbine or a part thereof without disconnecting the lightning protection system from a main grounding path galvanically connecting the lightning protection system to the ground, said signal-injecting device comprising one or more ferrite cores arranged around a protection unit, such as a down conductor , of the lightning protection system, around the main grounding path or at a connection point between the protection unit and the main grounding path and a signal source being configured to generate and inject variable-frequency electrical probe signals (S P ) into the lightning protection system, the signal source being connected across the one or more ferrite cores . one or more ferrite cores arranged around a protection unit, such as a down conductor , of the lightning protection system, around the main grounding path or at a connection point between the protection unit and the main grounding path and a signal source being configured to generate and inject variable-frequency electrical probe signals (S P ) into the lightning protection system, the signal source being connected across the one or more ferrite cores .
A multiphase method for processing organic material to obtain microbial output in less than 15 days, comprising: (a) a first phase wherein said organic material is hydrolyzed; (b) a second phase overlapping with said first phase wherein said hydrolyzed material of (a) is subject to acidogenesis and acetogenesis to obtain material comprising hydrogen, carbon dioxide, volatile organic acids and methanogenic precursors; (c) a third phase overlapping with said second phase wherein said methanogenic precursors in the material in (b) are converted to methane and the methane is subsequently subjected to methanotrophy, and said material in (b) is further subjected to nitrification; and (d) a fourth phase overlapping with said third phase wherein said material from (c) is subject to stabilization and reversion; wherein said method further comprises providing a working fluid to each phase and wherein said method optionally further comprises pasteurization and/or concentration; wherein said organic material is organic feedstock in a range of about 16 to about 1602 mg of organic feedstock per liter (about 0.001 to about 0.1 pound of organic feedstock per cubic foot) of total working capacity of the first phase space, the second phase space, the third phase space, and the fourth phase space. (a) a first phase wherein said organic material is hydrolyzed; (b) a second phase overlapping with said first phase wherein said hydrolyzed material of (a) is subject to acidogenesis and acetogenesis to obtain material comprising hydrogen, carbon dioxide, volatile organic acids and methanogenic precursors; (c) a third phase overlapping with said second phase wherein said methanogenic precursors in the material in (b) are converted to methane and the methane is subsequently subjected to methanotrophy, and said material in (b) is further subjected to nitrification; and (d) a fourth phase overlapping with said third phase wherein said material from (c) is subject to stabilization and reversion; wherein said method further comprises providing a working fluid to each phase and wherein said method optionally further comprises pasteurization and/or concentration; wherein said organic material is organic feedstock in a range of about 16 to about 1602 mg of organic feedstock per liter (about 0.001 to about 0.1 pound of organic feedstock per cubic foot) of total working capacity of the first phase space, the second phase space, the third phase space, and the fourth phase space.
A first device comprising: an electroencephalogram, EEG, signal sensor configured to record EEG signals indicative of a directional intention from a user of the first device : a gestural sensor configured to record gestural signals from the user, the gestural sensor comprising an inner ear pressure sensor configured to record inner ear pressure from the user and at least one of an accelerometer configured to record an accelerometer signal or a micro-gyroscope configured to record a gyroscope signal, the gestural signals indicative of head movement by the user; a communications module configured to: transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device ; receive one or more action signals from the secondary device , wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and wherein the first device is configured to perform at least one action based on the received one or more action signals from the secondary device . an electroencephalogram, EEG, signal sensor configured to record EEG signals indicative of a directional intention from a user of the first device : a gestural sensor configured to record gestural signals from the user, the gestural sensor comprising an inner ear pressure sensor configured to record inner ear pressure from the user and at least one of an accelerometer configured to record an accelerometer signal or a micro-gyroscope configured to record a gyroscope signal, the gestural signals indicative of head movement by the user; a communications module configured to: transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device ; receive one or more action signals from the secondary device , wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and transmit the recorded EEG signals and the recorded gestural signals to a secondary device communicatively coupled to the first device ; receive one or more action signals from the secondary device , wherein the one or more action signals correspond to one or more of a line pattern, a rune, and a directional intention determined based on the transmitted recorded EEG signals and gestural signals; and wherein the first device is configured to perform at least one action based on the received one or more action signals from the secondary device .
Method for correcting an influence of an interference effect on a gradient system of a magnetic resonance apparatus during a magnetic resonance scan, having the steps: • emitting (S1) a gradient pulse (g ref (t)) by means of an amplifier of the gradient system , • capturing (S2) a gradient sequence (g real (t)) which becomes established in an examination region of the magnetic resonance apparatus by way of the emission of the gradient pulse (g ref (t)), by means of a magnetic field measurement in the examination region , • capturing (S3) an output signal (i out (t)) of the amplifier for the gradient pulse (g ref (t)), • establishing (S4) a gradient system transfer function (GSTF, GIRF) dependent upon the captured gradient sequence (g real (t)) and the captured output signal (i out (t)) of the amplifier , characterised by the steps • establishing (S5) an output signal (i cor (t)) of the amplifier with which the gradient system provides an expected gradient sequence (g nom (t)), dependent upon the established gradient system transfer function (GSTF, GIRF) and • adjusting (S6) an input signal (i in (t)) of the amplifier dependent upon the established output signal (i cor (t)) of the amplifier and of the captured output signal (i out (t)) of the amplifier . • emitting (S1) a gradient pulse (g ref (t)) by means of an amplifier of the gradient system , • capturing (S2) a gradient sequence (g real (t)) which becomes established in an examination region of the magnetic resonance apparatus by way of the emission of the gradient pulse (g ref (t)), by means of a magnetic field measurement in the examination region , • capturing (S3) an output signal (i out (t)) of the amplifier for the gradient pulse (g ref (t)), • establishing (S4) a gradient system transfer function (GSTF, GIRF) dependent upon the captured gradient sequence (g real (t)) and the captured output signal (i out (t)) of the amplifier , characterised by the steps • establishing (S5) an output signal (i cor (t)) of the amplifier with which the gradient system provides an expected gradient sequence (g nom (t)), dependent upon the established gradient system transfer function (GSTF, GIRF) and • adjusting (S6) an input signal (i in (t)) of the amplifier dependent upon the established output signal (i cor (t)) of the amplifier and of the captured output signal (i out (t)) of the amplifier .
A signal detector, configured to detect the presence of a low frequency periodic signal, LFPS, on a channel of an interface, the signal detector comprising: a rectifier configured to generate a first current (I A ) based on an input signal, the input signal being a differential signal (Vip, Vin) that includes a first signal and a second signal; a first circuit configured to generate a second current (Ic) based on a first reference signal (Vref,cm); a second circuit configured to generate a third current (I B ) based on a common mode voltage (Vcm) of the input signal; a reference signal generator configured to generate a fourth current (I D ) based on a second reference signal (Vref, H) and a third reference signal (Vref, L); and a comparator configured to compare a first voltage (V1) and a second voltage (V2), the first voltage based on a sum of the first current (I A ) and the second current (I C ) and the second voltage based on a sum of the third current (I B ) and the fourth current (I D ), to generate a detection signal (LFPS_detect_out). a rectifier configured to generate a first current (I A ) based on an input signal, the input signal being a differential signal (Vip, Vin) that includes a first signal and a second signal; a first circuit configured to generate a second current (Ic) based on a first reference signal (Vref,cm); a second circuit configured to generate a third current (I B ) based on a common mode voltage (Vcm) of the input signal; a reference signal generator configured to generate a fourth current (I D ) based on a second reference signal (Vref, H) and a third reference signal (Vref, L); and a comparator configured to compare a first voltage (V1) and a second voltage (V2), the first voltage based on a sum of the first current (I A ) and the second current (I C ) and the second voltage based on a sum of the third current (I B ) and the fourth current (I D ), to generate a detection signal (LFPS_detect_out).