mhurhangee/patent-ind-claim-en huggingface dataset:
Roof bar device comprising a removable roof bar and a lockable/unlockable means for fixing the bar at each end of the bar, said fixing means comprising: - a fixing support comprising a mounting plate provided with locking studs , - a locking plate mounted in correspondence with said mounting plate and divided into as many locking sectors as there are locking studs, each sector receiving a stud capable of occupying a locking position and an unlocking position therein, - an operating handle , - a pivot with an axis of rotation oriented in a plane perpendicular to the main plane of said plate , said pivot being secured to the operating handle, and said plate being able to rotate as one with said pivot between said locking position and said unlocking position by respectively locking or unlocking said studs in the plate. - a fixing support comprising a mounting plate provided with locking studs , - a locking plate mounted in correspondence with said mounting plate and divided into as many locking sectors as there are locking studs, each sector receiving a stud capable of occupying a locking position and an unlocking position therein, - an operating handle , - a pivot with an axis of rotation oriented in a plane perpendicular to the main plane of said plate , said pivot being secured to the operating handle, and said plate being able to rotate as one with said pivot between said locking position and said unlocking position by respectively locking or unlocking said studs in the plate.
A scheduling method performed by a first device, the method comprising: • configuring a blind detection parameter of a control channel based on a carrier type or a carrier group (step 401), wherein the blind detection parameter comprises at least one of: o an aggregation level set, wherein the aggregation level set comprises at least one aggregation level value; o a candidate control channel quantity factor set, wherein the candidate control channel quantity factor set comprises a candidate control channel quantity factor corresponding to at least one aggregation level value; o a search space parameter, wherein the search space parameter represents detecting a specific search space, detecting a common search space, or detecting a specific search space and a common search space; and • sending configuration signaling that carries the blind detection parameter to a second device (step 402). • configuring a blind detection parameter of a control channel based on a carrier type or a carrier group (step 401), wherein the blind detection parameter comprises at least one of: o an aggregation level set, wherein the aggregation level set comprises at least one aggregation level value; o a candidate control channel quantity factor set, wherein the candidate control channel quantity factor set comprises a candidate control channel quantity factor corresponding to at least one aggregation level value; o a search space parameter, wherein the search space parameter represents detecting a specific search space, detecting a common search space, or detecting a specific search space and a common search space; and o an aggregation level set, wherein the aggregation level set comprises at least one aggregation level value; o a candidate control channel quantity factor set, wherein the candidate control channel quantity factor set comprises a candidate control channel quantity factor corresponding to at least one aggregation level value; o a search space parameter, wherein the search space parameter represents detecting a specific search space, detecting a common search space, or detecting a specific search space and a common search space; and • sending configuration signaling that carries the blind detection parameter to a second device (step 402).
A medical device comprising: a first electrode configured to be electrically coupled to a first pole of a source of high voltage dc electricity via a first cable, the first electrode configured to be electrically coupled to a source of surgical radio frequency energy via a second cable to form a radio frequency circuit to perform a surgical procedure on the subject, wherein the first cable is configured to be electrically coupled to the second cable at a connecting point; and a second electrode configured to be electrically coupled to a second pole of the source of high voltage dc electricity via a third cable, wherein the second pole is opposite the first pole to form a dc circuit to ionize, and remove or reduce smoke particles generated at a surgical site on a subject, the first electrode is configured to be positioned in the surgical site during the surgical procedure. a first electrode configured to be electrically coupled to a first pole of a source of high voltage dc electricity via a first cable, the first electrode configured to be electrically coupled to a source of surgical radio frequency energy via a second cable to form a radio frequency circuit to perform a surgical procedure on the subject, wherein the first cable is configured to be electrically coupled to the second cable at a connecting point; and a second electrode configured to be electrically coupled to a second pole of the source of high voltage dc electricity via a third cable, wherein the second pole is opposite the first pole to form a dc circuit to ionize, and remove or reduce smoke particles generated at a surgical site on a subject, the first electrode is configured to be positioned in the surgical site during the surgical procedure.
A method of processing a signal in a radio transmitter, the method comprising: identifying , in a sequence of digital signal values making up a signal, a plurality of non-overlapping and separated signal segments, each identified signal segment corresponding to an interval of the signal in which the amplitude of at least one of the digital signal values exceeds a first predetermined threshold value, wherein said identifying comprises ensuring that each identified signal segment is separated from all other identified signal segments by at least a predetermined number of digital signal values; for each identified signal segment, calculating an overshoot vector representing the extent by which the identified signal segment exceeds a second predetermined threshold value; separately filtering each overshoot vector with a predefined digital filter having one or more passbands corresponding to in-band portions of the signal; and subtracting each filtered overshoot vector from the corresponding portion of the digital signal values making up the signal, to obtain a compensated signal having a reduced crest factor. identifying , in a sequence of digital signal values making up a signal, a plurality of non-overlapping and separated signal segments, each identified signal segment corresponding to an interval of the signal in which the amplitude of at least one of the digital signal values exceeds a first predetermined threshold value, wherein said identifying comprises ensuring that each identified signal segment is separated from all other identified signal segments by at least a predetermined number of digital signal values; for each identified signal segment, calculating an overshoot vector representing the extent by which the identified signal segment exceeds a second predetermined threshold value; separately filtering each overshoot vector with a predefined digital filter having one or more passbands corresponding to in-band portions of the signal; and subtracting each filtered overshoot vector from the corresponding portion of the digital signal values making up the signal, to obtain a compensated signal having a reduced crest factor.
A sizing composition for fibers and yarns and/or fabrics made from such fibers, particularly for natural animal fibers, vegetable fibers, synthetic polymer fibers, man-made natural polymer fibers, continuous filaments of animal origin and/or discontinuous filaments of animal origin, to be used at a pure state or blended together, wherein said sizing composition comprises chitosan and/or derivatives thereof, wherein: - said chitosan and/or derivatives thereof have a molecular weight M v ranging from 120,000 Da to 180,000 Da, preferably a molecular weight M v of the order of 150,000 Da, with a degree of deacetylation of 70-90%, and an ambient temperature viscosity of 20-200 cps with 1% w/w chitosan in 1% w/v acetic or citric acid, characterized in that: - said sizing composition comprises an organic acid solution with a pH of less than 6.5 at 3-9% v/v, in which 3% to 9% w/v of said chitosan and/or derivatives thereof are dissolved: • by agitation or • by a dispersion step that is carried out using a COWLES-type impeller or an impeller with blades, preferably a sawblade impeller, which can impact the solid particles of chitosan and/or derivatives thereof at high speed, and - to facilitate UV crosslinking of chitosan and/or derivative, said sizing composition is enriched with additional double-bond monomers crosslinking agents comprising acrylic monomers with low environmental impact added in an amount equal to the w/v percent of chitosan and/or derivatives thereof in the sizing composition. - said chitosan and/or derivatives thereof have a molecular weight M v ranging from 120,000 Da to 180,000 Da, preferably a molecular weight M v of the order of 150,000 Da, with a degree of deacetylation of 70-90%, and an ambient temperature viscosity of 20-200 cps with 1% w/w chitosan in 1% w/v acetic or citric acid, - said sizing composition comprises an organic acid solution with a pH of less than 6.5 at 3-9% v/v, in which 3% to 9% w/v of said chitosan and/or derivatives thereof are dissolved: • by agitation or • by a dispersion step that is carried out using a COWLES-type impeller or an impeller with blades, preferably a sawblade impeller, which can impact the solid particles of chitosan and/or derivatives thereof at high speed, and • by agitation or • by a dispersion step that is carried out using a COWLES-type impeller or an impeller with blades, preferably a sawblade impeller, which can impact the solid particles of chitosan and/or derivatives thereof at high speed, and - to facilitate UV crosslinking of chitosan and/or derivative, said sizing composition is enriched with additional double-bond monomers crosslinking agents comprising acrylic monomers with low environmental impact added in an amount equal to the w/v percent of chitosan and/or derivatives thereof in the sizing composition.
Method of producing polyurethane foams having a density < 100 kg/m 3 by reacting one or more polyol components with one or more isocyanate components, which comprises using at least 15 wt% of polyolefin polyol, based on the total amount of polyol used, characterized in that an additive used comprises an additive composition comprising at least one ionic surfactant B selected from a quaternized ammonium compound, and also at least a tertiary amine compound C which is not an oxazasilinane and has a molar mass of at least 150 g/mol, and also at least one oxazasilinane D.
A heterophasic propylene copolymer composition comprising a heterophasic propylene copolymer (HECO), comprising (a) a matrix (A) comprising a propylene homo- or copolymer, said propylene homo- or copolymer comprises at least two propylene homo- and/or copolymer fractions, propylene homo- or copolymer fraction (A1) and propylene homo- or copolymer fraction (A2), wherein propylene homo- or copolymer fraction (A1) has a melt flow rate MFR2 (230°C) of 250 g/10 min or more, preferably of 300 g/10min or more, more preferably of more than 300 g/10min, and propylene homo- or copolymer fraction (A2) has a melt flow rate MFR2 (230°C) in the range of from 0.5 to 25 g/10 min, preferably in the range of from 1 to 20 g/10min; and (b) an elastomeric propylene copolymer (B), preferably a uni- or bimodal elastomeric propylene copolymer, more preferably a unimodal elastomeric propylene copolymer, dispersed in said matrix (A), wherein (i) the heterophasic propylene copolymer composition has a melt flow rate MFR2 (230°C) of at least 50 g/10 min; (ii) the amount of propylene homo- or copolymer fraction (A1) is from 45 wt.% to 95 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix (A); (iii) the amount of propylene homo- or copolymer fraction (A2) is from 5 wt.% to less than 15 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix (A); and (iv) the soluble fraction (SF) according to CRYSTEX QC of the heterophasic propylene copolymer composition comprises more than 18.0 wt.% of the total heterophasic propylene copolymer composition (HECO). (a) a matrix (A) comprising a propylene homo- or copolymer, said propylene homo- or copolymer comprises at least two propylene homo- and/or copolymer fractions, propylene homo- or copolymer fraction (A1) and propylene homo- or copolymer fraction (A2), wherein propylene homo- or copolymer fraction (A1) has a melt flow rate MFR2 (230°C) of 250 g/10 min or more, preferably of 300 g/10min or more, more preferably of more than 300 g/10min, and propylene homo- or copolymer fraction (A2) has a melt flow rate MFR2 (230°C) in the range of from 0.5 to 25 g/10 min, preferably in the range of from 1 to 20 g/10min; and (b) an elastomeric propylene copolymer (B), preferably a uni- or bimodal elastomeric propylene copolymer, more preferably a unimodal elastomeric propylene copolymer, dispersed in said matrix (A), (i) the heterophasic propylene copolymer composition has a melt flow rate MFR2 (230°C) of at least 50 g/10 min; (ii) the amount of propylene homo- or copolymer fraction (A1) is from 45 wt.% to 95 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix (A); (iii) the amount of propylene homo- or copolymer fraction (A2) is from 5 wt.% to less than 15 wt.% based on the total amount of all propylene homo- and/ or copolymer fractions present in the matrix (A); and (iv) the soluble fraction (SF) according to CRYSTEX QC of the heterophasic propylene copolymer composition comprises more than 18.0 wt.% of the total heterophasic propylene copolymer composition (HECO).
A battery pack, comprising at least one battery sequence, wherein the battery sequence comprises a plurality of batteries; a thickness of each battery extends along a first direction, and the plurality of batteries are successively arranged along the first direction to form the battery sequence; and at least one of the batteries comprises a casing and a core packaged in the casing, a gap exists between at least two neighboring batteries, a ratio of the gap to the thickness of the battery is c, and c satisfies the following relational expression: (a-b)<c<(a×t), wherein a represents an expansion rate of the battery; b represents a compression rate of the core; and t represents a ratio in percentage of a thickness of the battery after effective compression to a thickness of the battery before compression. a represents an expansion rate of the battery; b represents a compression rate of the core; and t represents a ratio in percentage of a thickness of the battery after effective compression to a thickness of the battery before compression.
A composition comprising: (a) a quantum dot binding-ligand having the formula: wherein: each R 1a , R 1b , R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and (b) a population of light emitting quantum dots (QDs) comprising InP. (a) a quantum dot binding-ligand having the formula: wherein: each R 1a , R 1b , R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and each R 1a , R 1b , R 2 and R 4 is independently selected from the group consisting of H, C 1-20 alkyl, C 1-20 heteroalkyl, C 2-20 alkenyl, C 2-20 alkynyl, cycloalkyl and aryl; each R 3a and R 3b is independently selected from the group consisting of H and C 1-6 alkyl; subscripts m and n are each independently 0 or 1, such that m+n is 1; and subscript p is an integer of from 5 to 500; wherein when subscript m is 0, then one of R 1a and R 1b is H, and R 2 and the other of R 1a and R 1b are selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, and cycloalkyl; when subscript m is 1, then R 1a and R 2 are both H and R 1b is selected from the group consisting of C 8-20 alkyl, C 8-20 heteroalkyl, C 8-20 alkenyl, C 8-20 alkynyl, cycloalkyl and aryl; and (b) a population of light emitting quantum dots (QDs) comprising InP.
Power distributor , in particular for an on-board network of a motor vehicle , comprising two power outputs , an intermediate tap and a respective switching unit for each power output with a switch for blocking the associated power output as required, wherein - each of these switching units is designed in such a way that the associated power output is blocked if in the event of a voltage drop below a first setpoint value at the associated power output and/or at the intermediate tap a fault situation is detected, wherein the blocking of the associated power output takes place the faster the higher the corresponding voltage drop is, - each of said switching units is linked to a voltage monitoring unit , by means of which the voltages at the power outputs and/or the voltage at the intermediate tap are monitored, or wherein each of these switching units comprises a voltage monitoring unit , by means of which the voltage at the associated power output and/or at the intermediate tap is monitored and - a delay element is connected upstream of each voltage monitoring unit , so that a voltage drop at the associated power output and/or at the intermediate tap causes a voltage drop with a modified time characteristic at the respective voltage monitoring unit . - each of these switching units is designed in such a way that the associated power output is blocked if in the event of a voltage drop below a first setpoint value at the associated power output and/or at the intermediate tap a fault situation is detected, wherein the blocking of the associated power output takes place the faster the higher the corresponding voltage drop is, - each of said switching units is linked to a voltage monitoring unit , by means of which the voltages at the power outputs and/or the voltage at the intermediate tap are monitored, or wherein each of these switching units comprises a voltage monitoring unit , by means of which the voltage at the associated power output and/or at the intermediate tap is monitored and - a delay element is connected upstream of each voltage monitoring unit , so that a voltage drop at the associated power output and/or at the intermediate tap causes a voltage drop with a modified time characteristic at the respective voltage monitoring unit .
A layered diesel oxidation catalyst composite for the treatment of exhaust gas emissions from a diesel engine comprising: a diesel oxidation catalytic material on a flow-through substrate, the catalytic material comprising a palladium component and two layers: a hydrocarbon trap layer comprising a beta zeolite, gamma alumina, and platinum, the hydrocarbon trap layer being substantially free of palladium; a palladium-containing layer that comprises the palladium component, platinum, and gamma alumina, and is substantially free of a molecular sieve and is substantially free of an oxygen storage component, wherein the Pt/Pd ratio is in the range of 4/1 to 1/2 and the palladium component is located on a high surface area, gamma alumina support; wherein the catalytic material further comprises an undercoat layer located on the flow-through substrate and below the two layers; wherein the catalytic material further comprises an oxygen storage component comprising CeO 2 that is located in the hydrocarbon trap and the undercoat layer; wherein the palladium-containing layer is located on the undercoat layer and the hydrocarbon trap layer is located on the palladium-containing layer; and the undercoat layer comprises gamma alumina, and optionally palladium wherein the catalytic material comprises the palladium component in an amount in the range of 5 to 75 g/ft 3 (0.18 to 2.65 kg/m 3 ), and wherein the catalytic material comprises the platinum component, in the range of 10 g/ft 3 to 150 g/ft 3 (0.35 to 5.30 kg/m 3 ), an amount of up to 20% by weight of the platinum component being incorporated into the beta zeolite, and an amount of at least 80% by weight of the platinum component being on the high surface area, gamma alumina support of the palladium containing layer, the layered catalyst composite having a total precious metal component loading in an amount in the range of 15 to 225 g/ft 3 (0.53 to 7.95 kg/m 3 ). a hydrocarbon trap layer comprising a beta zeolite, gamma alumina, and platinum, the hydrocarbon trap layer being substantially free of palladium; a palladium-containing layer that comprises the palladium component, platinum, and gamma alumina, and is substantially free of a molecular sieve and is substantially free of an oxygen storage component, wherein the Pt/Pd ratio is in the range of 4/1 to 1/2 and the palladium component is located on a high surface area, gamma alumina support;