mhurhangee/patent-ind-claim-en huggingface dataset:
Propelling charge system for firing artillery shells with at least two partial charges, wherein each of the partial charges has one powder type as a propellant, said powder type comprising nitrocellulose, at least one crystalline energy carrier comprising a nitramine compound and at least one first inert plasticizer, characterized in that at least one partial charge comprises a first powder type and the at least one further partial charge comprises a second powder type, wherein the second powder type contains 2 to 10 wt.% of a second inert plasticizer in the region of the near-surface zones to a penetration depth of at most 400 μm and the first powder type contains no second inert plasticizer in the near-surface zones.
Human transport device , in particular an escalator or travellator, comprising a plurality of tread elements that are connected so as to form an endless transport belt , at least one drive unit for driving the transport belt , and a monitoring apparatus for identifying a faulty arrangement of at least one tread element in the transport belt , wherein the tread elements of the driven transport belt between a first return station and a second return station run through a transport region and a return region , wherein the monitoring apparatus has at least one detection means and at least one triggering unit , wherein the at least one detection means in the direction of longitudinal extent of the human transport device is disposed between the first return station and the second return station , so as to be below the tread elements of the transport region , the at least one detection means is connected to the at least one triggering unit , characterized in that the at least one triggering unit is configured to be triggered in the event of a mechanical action of at least one tread element disposed incorrectly in the transport region on the at least one detection means .
Compound of Formula (I): wherein R 1 , R 2 , R 6 and R 7 are independently selected from H, Cl, Br and C 1 -C 4 alkyl; R 3 and R 5 are independently selected from H, Cl, Br, C 1 -C 4 alkyl, aryl, -CH=CH-aryl, A and -CH=CH-A; R 8 is selected from aryl and A ; wherein aryl may be unsubstituted or substituted by 1-3 substituents selected from C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 alkoxy and OH; A is a substituent of formula: R 9 is selected from -N(C 1 -C 4 alkyl) 2 , -N(C 1 -C 4 alkyl) 2 H + X - and -N(C 1 -C 4 alkyl) 3 + X - , X - is Cl - Br - , or I - ; R 10 is selected from H and -CH 2 R 9 ; with the proviso that at least one of R 3 , R 5 and R 8 is A or one of R 3 and R 5 is -CH=CH-A; or a salt thereof. R 1 , R 2 , R 6 and R 7 are independently selected from H, Cl, Br and C 1 -C 4 alkyl; R 3 and R 5 are independently selected from H, Cl, Br, C 1 -C 4 alkyl, aryl, -CH=CH-aryl, A and -CH=CH-A; R 8 is selected from aryl and A ; wherein aryl may be unsubstituted or substituted by 1-3 substituents selected from C 1 -C 4 alkyl, C 1 -C 4 haloalkyl, C 1 -C 4 alkoxy and OH; A is a substituent of formula: R 9 is selected from -N(C 1 -C 4 alkyl) 2 , -N(C 1 -C 4 alkyl) 2 H + X - and -N(C 1 -C 4 alkyl) 3 + X - , X - is Cl - Br - , or I - ; R 10 is selected from H and -CH 2 R 9 ;
Paper , suitable for use as removable or repositionable labels, comprising: a paper substrate , having a weight of less than about 70 gsm, a width (W) extending between lateral edges , a longitudinal axis (L) extending along the center of the width, a first side and a second side , the first side supporting at least one release layer ; the second side supporting at least one layer of adhesive ; characterised in that the second side supports at least one layer of a cleaning material between the adhesive layer or layers and the paper substrate , which cleaning material has an affinity for the adhesive of the layer or layers ; the adhesive layer or layers comprising substantially discrete adhesive patches having a dry weight per unit area of the paper, the adhesive patches being separated by adhesive having a lower dry weight per unit area of the paper; wherein the cleaning material and the adhesive having a lower dry weight per unit area of the paper form a cleaning layer that, in use, tends to clean printer components when the labels are being printed. a paper substrate , having a weight of less than about 70 gsm, a width (W) extending between lateral edges , a longitudinal axis (L) extending along the center of the width, a first side and a second side , the first side supporting at least one release layer ; the second side supporting at least one layer of adhesive ; characterised in that the second side supports at least one layer of a cleaning material between the adhesive layer or layers and the paper substrate , which cleaning material has an affinity for the adhesive of the layer or layers ; the adhesive layer or layers comprising substantially discrete adhesive patches having a dry weight per unit area of the paper, the adhesive patches being separated by adhesive having a lower dry weight per unit area of the paper; wherein the cleaning material and the adhesive having a lower dry weight per unit area of the paper form a cleaning layer that, in use, tends to clean printer components when the labels are being printed.
Fall-prevention device capable of shifting from a disengaged configuration to an engaged configuration to prevent the fall of an elevator which is capable of being moved along a rack of an elevator mast , said fall-prevention device comprising a frame , a lever , a roller pivotably connected to said lever and fixed to a first end of said lever, said roller being capable of rolling on a smooth face of the rack , a cleat fixed to a second end of said lever, said cleat comprising a toothed portion able to cooperate with a toothed face of the rack and being connected to the frame by means of a compression spring , and at least one shock absorber arranged on an upper part of said fall-prevention device, said fall-prevention device also being characterised in that it is in sliding connection with said elevator.
A control method of an automatic driving vehicle switchable between manual driving in which the vehicle is made to travel depending on an operation of an occupant and automatic driving in which driving characteristics in automatic travel are set and the vehicle is made to automatically travel based on the driving characteristics, comprising when performing switching from the manual driving to the automatic driving, performing the automatic driving while maintaining manual driving characteristics which are driving characteristics in the manual driving characterized in that the control method of the automatic driving vehicle further comprises, when performing switching from the manual driving to the automatic driving, performing the automatic driving with the manual driving characteristics maintained for a preset manual characteristic maintaining time (T1).
A system for delivering a liquid including: - a peristaltic pump , operating on a cycle basis, so that a liquid elementary volume is delivered during each cycle, - at least one actuator (51 1 , 51 2 , 51 3 ) able to cause a liquid volume to be delivered from the pump, during one cycle, - a control circuit , to apply a control signal to the actuator, so that the volume delivered during one cycle depends on this signal applied to the actuator, characterised in that it includes: - a sensor , including a flowmeter, associated with means for integrating the signal of this flowmeter, so as to thus generate a signal representative of the volume delivered during one cycle; - the control circuit determining a control signal as a function of said signal from the sensor, representative of the volume delivered during one cycle, and of a set point signal (V D , V S ). - a peristaltic pump , operating on a cycle basis, so that a liquid elementary volume is delivered during each cycle, - at least one actuator (51 1 , 51 2 , 51 3 ) able to cause a liquid volume to be delivered from the pump, during one cycle, - a control circuit , to apply a control signal to the actuator, so that the volume delivered during one cycle depends on this signal applied to the actuator, - a sensor , including a flowmeter, associated with means for integrating the signal of this flowmeter, so as to thus generate a signal representative of the volume delivered during one cycle; - the control circuit determining a control signal as a function of said signal from the sensor, representative of the volume delivered during one cycle, and of a set point signal (V D , V S ).
An LED driver comprising: - a switched-mode power converter for providing power to an LED arrangement connected across output terminals of the converter , and wherein the converter comprises a number of energy storage elements (L, C) and a first semiconductor switch (Q1) used to control an energy transfer between the number of energy storage elements (L, C), wherein the switched-mode power converter comprises a boost converter; - a second semiconductor switch (Q2) connected in series with the LED arrangement ; - a control means realized to generate a second control signal (G2) for the second semiconductor switch (Q2), such that a transition of the second control signal (G2) is delayed relative to a corresponding transition of a first control signal (G1) for the first semiconductor switch (Q1), wherein the energy storage elements (L, C) comprise an inductor (L) and a capacitor (C) and characterized in that the control means is realized to: - time the transitions of the second control signal (G2) relative to the first control signal (G1) according to an energy transfer between the energy storage elements (L, C); and - generate a delay of a trailing edge transition of the second control signal (G2) as a function of a current level of the inductor (L). - a switched-mode power converter for providing power to an LED arrangement connected across output terminals of the converter , and wherein the converter comprises a number of energy storage elements (L, C) and a first semiconductor switch (Q1) used to control an energy transfer between the number of energy storage elements (L, C), wherein the switched-mode power converter comprises a boost converter; - a second semiconductor switch (Q2) connected in series with the LED arrangement ; - a control means realized to generate a second control signal (G2) for the second semiconductor switch (Q2), such that a transition of the second control signal (G2) is delayed relative to a corresponding transition of a first control signal (G1) for the first semiconductor switch (Q1), wherein the energy storage elements (L, C) comprise an inductor (L) and a capacitor (C) and characterized in that the control means is realized to: - time the transitions of the second control signal (G2) relative to the first control signal (G1) according to an energy transfer between the energy storage elements (L, C); and - generate a delay of a trailing edge transition of the second control signal (G2) as a function of a current level of the inductor (L). - time the transitions of the second control signal (G2) relative to the first control signal (G1) according to an energy transfer between the energy storage elements (L, C); and - generate a delay of a trailing edge transition of the second control signal (G2) as a function of a current level of the inductor (L).
A method of dynamically adjusting an error correction effort level of a storage device, the method comprising: receiving, at the storage device from a storage array controller, an error correction effort level to perform that determines error correction efforts at the storage device to apply to read operations for data from the storage device; identifying, by a controller that resides within the storage device, that a read operation to read the data resulted in an error; and responsive to determining, by the controller that resides within the storage device that an amount of error correction effort level required to correct the error exceeds the received error correction effort level, returning an error condition for the read operation to the storage array controller. receiving, at the storage device from a storage array controller, an error correction effort level to perform that determines error correction efforts at the storage device to apply to read operations for data from the storage device; identifying, by a controller that resides within the storage device, that a read operation to read the data resulted in an error; and responsive to determining, by the controller that resides within the storage device that an amount of error correction effort level required to correct the error exceeds the received error correction effort level, returning an error condition for the read operation to the storage array controller.
A tricyclic phenolic compound of the general formula V in which the substituent R 1 is a hydrocarbyl radical which has from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is a hydrogen atom or a C 1 - to C 4 -alkyl radical, and in which the substituents R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 are each independently hydrogen atoms or hydrocarbyl radicals which have in each case from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is as defined above, with the proviso that at least one of the substituents R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 is a polyisobutenyl radical having a number-average molecular weight M n of from 183 to 42 000, and the remaining substituents from the group of R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 , when they are hydrocarbyl radicals, each have from 1 to 20 carbon atoms. in which the substituent R 1 is a hydrocarbyl radical which has from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is a hydrogen atom or a C 1 - to C 4 -alkyl radical, and in which the substituents R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 are each independently hydrogen atoms or hydrocarbyl radicals which have in each case from 1 to 3000 carbon atoms and may be interrupted by one or more heteroatoms from the group of O and S and/or by one or more NR 6 moieties, where R 6 is as defined above, with the proviso that at least one of the substituents R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 is a polyisobutenyl radical having a number-average molecular weight M n of from 183 to 42 000, and the remaining substituents from the group of R 1 , R 2 , R 3 , R 4 , R 5 , R 8 , R 9 and R 10 , when they are hydrocarbyl radicals, each have from 1 to 20 carbon atoms.
A method of signaling alignment in a multicarrier system that utilizes one or more flexible bandwidth carriers, the method comprising: identifying a timing for one or more subframes that carry one or more feedback messages for a first cell; and adjusting a timing for one or more subframes that carry one or more feedback messages for a second cell to align with the one or more subframes that carry the one or more feedback messages for the first cell, wherein at least the first cell or the second cell comprises at least one of the one or more flexible bandwidth carriers, wherein the one or more flexible bandwidth carriers provide for an up-scaled or down-scaled time or chip rate using a scaling factor, and wherein the chip rate of the first cell differs from the chip rate of the second cell. identifying a timing for one or more subframes that carry one or more feedback messages for a first cell; and adjusting a timing for one or more subframes that carry one or more feedback messages for a second cell to align with the one or more subframes that carry the one or more feedback messages for the first cell, wherein at least the first cell or the second cell comprises at least one of the one or more flexible bandwidth carriers, wherein the one or more flexible bandwidth carriers provide for an up-scaled or down-scaled time or chip rate using a scaling factor, and wherein the chip rate of the first cell differs from the chip rate of the second cell.
An automatic vehicle washing system comprising a first pump for collecting water from the water supply network , a filter for separating sediments from the water supply and a water softener , characterised in that said water softener is configured to eject decalcified water, being pumped through conduits to a first decalcified water tank configured for storing and ejecting decalcified water through a first outlet by means of a second pump through osmosis filters situated between said second pump and a second osmosed water tank , wherein, from the first decalcified water tank and from the second osmosed water tank two independent hydraulic circuits of the automatic washing system with control means are created, wherein; - the first independent hydraulic circuit comprises the first water tank which ejects decalcified water by means of a second outlet by means of the action of a third pump configured to extract and pump the decalcified water of the first tank through a first detergent dispenser , situated between the first tank and the third pump , and pump it to a first spray gun configured to eject the water with detergent onto a vehicle by means of a first arm in a washing bay; - the second hydraulic circuit comprises the second osmosed water tank , connected to a fourth pump , through a second wax and brightener dispenser , wherein said fourth pump is configured to extract and pump the osmosed water of the second tank , and pump it to a second spray gun configured to eject the water with wax and brightener through a second arm in a washing bay; and - control means configured for applying a first phase in which decalcified water with high-density foam is ejected onto the vehicle to be washed by means of the first spray gun , and a second rinsing and finishing phase, in which the osmosed water is ejected with wax and brightener onto the vehicle to be washed by means of the second spray gun . - the first independent hydraulic circuit comprises the first water tank which ejects decalcified water by means of a second outlet by means of the action of a third pump configured to extract and pump the decalcified water of the first tank through a first detergent dispenser , situated between the first tank and the third pump , and pump it to a first spray gun configured to eject the water with detergent onto a vehicle by means of a first arm in a washing bay; - the second hydraulic circuit comprises the second osmosed water tank , connected to a fourth pump , through a second wax and brightener dispenser , wherein said fourth pump is configured to extract and pump the osmosed water of the second tank , and pump it to a second spray gun configured to eject the water with wax and brightener through a second arm in a washing bay; and - control means configured for applying a first phase in which decalcified water with high-density foam is ejected onto the vehicle to be washed by means of the first spray gun , and a second rinsing and finishing phase, in which the osmosed water is ejected with wax and brightener onto the vehicle to be washed by means of the second spray gun .
A method for multimedia broadcast multicast service, MBMS, bearer handling in a group communications Push-To-Talk, PTT, system , the method being performed by a control node , comprising: activating and announcing (S101, S303b, S304b) a first MBMS bearer for supporting floor control in a group call to client nodes of the group call; and activating and announcing (S103, S303a, S304a) at least one second MBMS bearer for supporting media transmission in the group call, whereby the floor control and the media transmission are supported on separate MBMS bearers for the group call. activating and announcing (S101, S303b, S304b) a first MBMS bearer for supporting floor control in a group call to client nodes of the group call; and activating and announcing (S103, S303a, S304a) at least one second MBMS bearer for supporting media transmission in the group call, whereby the floor control and the media transmission are supported on separate MBMS bearers for the group call.
A fusion protein which comprises at least one antigenic amino acid sequence fused at the N-term and/or C-term of a carrier heterologous protein sequence, wherein the antigenic sequence comprises an epitope sequence of a Plasmodium protein and the carrier heterologous protein sequence is a sequence that is immunogenic in humans, wherein the carrier heterologous protein sequence is CRM197 or an immunogenic fragment thereof; which immunogenic fragment is selected from the group consisting of Fragment A, Transmembrane Domain T, Receptor Binding domain R of CRM197, amino acid sequence 1-190 of CRM197, and amino acid sequence 1-389 of CRM197; and wherein the antigenic sequence is MSP3, LSA3, or LSA5, or an epitopic fragment of MSP3 that encompasses motifs a, b, c, d, e and/or f of the C-terminal region of a Plasmodium MSP3 protein chosen among MSP3-1, MSP3-2, MSP3-3, MSP3-4, MSP3-7, MSP3-8, preferably selected from SEQ ID NO: 7 to SEQ ID NO: 54, or an epitopic fragment of LSA3 that is peptide DG729 of SEQ ID NO: 77.
A power structure, wherein the power structure comprises a first substrate , a second substrate , a driver chip , a power semiconductor chip , and a conductive part , wherein: the power semiconductor chip is a chip that generates power in a powered-on state; the driver chip is a chip component configured to drive the power semiconductor chip ; a first surface of the first substrate and a second surface of the second substrate are disposed opposite to each other; a first end of the conductive part is connected to the first surface , and a second end of the conductive part is connected to the second surface ; the driver chip is disposed on the first substrate ; and the power semiconductor chip is disposed on the second substrate ; the second substrate is a substrate having a heat dissipation function; and wherein: the heat dissipation function comprises the second substrate being a direct bonding copper; or, the heat dissipation function comprises a heat dissipation module disposed on the second substrate ; wherein the power chip and the heat dissipation module are respectively disposed on different surfaces of the second substrate. the power semiconductor chip is a chip that generates power in a powered-on state; the driver chip is a chip component configured to drive the power semiconductor chip ; a first surface of the first substrate and a second surface of the second substrate are disposed opposite to each other; a first end of the conductive part is connected to the first surface , and a second end of the conductive part is connected to the second surface ; the driver chip is disposed on the first substrate ; and the power semiconductor chip is disposed on the second substrate ; the second substrate is a substrate having a heat dissipation function; and wherein: the heat dissipation function comprises the second substrate being a direct bonding copper; or, the heat dissipation function comprises a heat dissipation module disposed on the second substrate ; wherein the power chip and the heat dissipation module are respectively disposed on different surfaces of the second substrate. the heat dissipation function comprises the second substrate being a direct bonding copper; or, the heat dissipation function comprises a heat dissipation module disposed on the second substrate ; wherein the power chip and the heat dissipation module are respectively disposed on different surfaces of the second substrate.