mhurhangee/patent-ind-claim-en huggingface dataset:
A front loader comprising: a boom ; a main frame attached to a vehicle body ; a sub frame supporting the boom , the sub frame being attached to the main frame and configured to be detached from the main frame ; a first engaging portion provided on the main frame ; a second engaging portion provided on the sub frame and configured to be engaged with the first engaging portion when the sub frame is attached to the main frame ; a guide portion provided on the main frame and configured to guide the second engaging portion to be engaged with the first engaging portion ; and an opening member provided on the sub frame and provided with an opening portion to which the guide portion is inserted when the second engaging portion is engaged with the first engaging portion , that the sub frame has: an inner sub frame ; and an outer sub frame arranged opposed to the inner sub frame , characterized in that the opening member is a coupling plate coupling the inner sub frame to the outer sub frame . a boom ; a main frame attached to a vehicle body ; a sub frame supporting the boom , the sub frame being attached to the main frame and configured to be detached from the main frame ; a first engaging portion provided on the main frame ; a second engaging portion provided on the sub frame and configured to be engaged with the first engaging portion when the sub frame is attached to the main frame ; a guide portion provided on the main frame and configured to guide the second engaging portion to be engaged with the first engaging portion ; and an opening member provided on the sub frame and provided with an opening portion to which the guide portion is inserted when the second engaging portion is engaged with the first engaging portion , that the sub frame has: an inner sub frame ; and an outer sub frame arranged opposed to the inner sub frame , characterized in that the opening member is a coupling plate coupling the inner sub frame to the outer sub frame . an inner sub frame ; and an outer sub frame arranged opposed to the inner sub frame , characterized in that the opening member is a coupling plate coupling the inner sub frame to the outer sub frame .
Electrical distribution box for an aircraft comprising first housings for receiving power modules and second housings for receiving electronic control modules, and an interface for making the connections between the various modules and external electrical elements, characterized in that the interface comprises at least one input power busbar extending into at least a first housing so as to be able to be connected to at least one power module, an input busbar being capable of being connected to a cable of a wiring harness in such a way as to connect at least one power module to the electrical harness.
An electrospray ion source system for detecting emitter failure, the electrospray ion source system comprising: a liquid chromatography column suitable for chromatographic separation of a sample, the liquid chromatography column having an inlet for receiving the sample and an outlet for ejecting the sample; a make-up flow channel for introducing a make-up flow of liquid to the sample post-column; an electrospray ionization source having one or more emitter nozzles for receiving the make-up flow containing sample; a power supply for providing a voltage to the one or more emitter nozzles; and a measurement device for measuring and monitoring the spray current of the one or more emitter nozzles, wherein the make-up flow channel is configured to introduce the make-up flow so as to normalize the spray current within a range, to enable detection of emitter failure when the spray current is outside the normalized range. a liquid chromatography column suitable for chromatographic separation of a sample, the liquid chromatography column having an inlet for receiving the sample and an outlet for ejecting the sample; a make-up flow channel for introducing a make-up flow of liquid to the sample post-column; an electrospray ionization source having one or more emitter nozzles for receiving the make-up flow containing sample; a power supply for providing a voltage to the one or more emitter nozzles; and a measurement device for measuring and monitoring the spray current of the one or more emitter nozzles, wherein the make-up flow channel is configured to introduce the make-up flow so as to normalize the spray current within a range, to enable detection of emitter failure when the spray current is outside the normalized range.
Aqueous coating composition comprising (a) at least one anionically stabilized binder BM, (b) at least one effect pigment EP, (c) at least one polycarboxylic acid PC, wherein the polycarboxylic acid is a dicarboxylic acid which has the formula (I) K +- OOC-(CH 2 ) x -COO - K + in which x stands for integers from 4 to 30, and K + is hydrogen or a cation, and (d) at least one solvent L. (a) at least one anionically stabilized binder BM, (b) at least one effect pigment EP, (c) at least one polycarboxylic acid PC, wherein the polycarboxylic acid is a dicarboxylic acid which has the formula (I) K +- OOC-(CH 2 ) x -COO - K + in which x stands for integers from 4 to 30, and K + is hydrogen or a cation, and x stands for integers from 4 to 30, and K + is hydrogen or a cation, and (d) at least one solvent L.
A valve for closing a container and for enabling the container to be filled, said valve comprising a housing with an inlet port and an outlet port wherein said inlet port is adapted for direct or indirect connection to a fluid source and wherein said outlet port is adapted for direct or indirect connection to said container ; a closing member (360; 460); and at least one valve member (370; 470) which in a first position allows fluid communication between said inlet port and said outlet port and which, in a second position, prevents fluid communication from said inlet port to said outlet port , wherein said valve member (370; 470) is brought into and maintained in said first position only if a static pressure difference (ΔP3) across said valve member (370; 470) is below a predeterminable first threshold, characterized in that the valve member (370; 470) has an internal part (380", 480") comprised in said valve which can be operatively connected with an external part (380'; 480') not comprised in said valve for bringing and maintaining said valve member (370; 470) into said first position. a housing with an inlet port and an outlet port wherein said inlet port is adapted for direct or indirect connection to a fluid source and wherein said outlet port is adapted for direct or indirect connection to said container ; a closing member (360; 460); and at least one valve member (370; 470) which in a first position allows fluid communication between said inlet port and said outlet port and which, in a second position, prevents fluid communication from said inlet port to said outlet port , wherein said valve member (370; 470) is brought into and maintained in said first position only if a static pressure difference (ΔP3) across said valve member (370; 470) is below a predeterminable first threshold,
Use of a treatment solution comprising: water; from 100 to 500,000 ppm of total dissolved solids; from 1.9 to 11.4 1 (0.5 to 3 gallons) of a water-in-oil emulsion per 3785 1 (1000 gallons) of the treatment solution, said water-in-oil emulsion comprising an oil phase (O) and an aqueous phase (A) at an O/A ratio of from 1:8 to 10:1, wherein the oil phase is a continuous phase comprising an inert hydrophobic liquid; wherein the aqueous phase is present as dispersed distinct particles in the oil phase and comprises water, a water soluble polymer, and surfactants; wherein the water soluble polymer comprises 20 to 80 weight percent of a non-ionic monomer, 0.5 to 30 weight percent of a carboxylic acid containing monomer, and 5 to 70 weight percent of a cationic monomer; and wherein the water soluble polymer comprises from 5 to 40 weight percent of the water-in-oil emulsion; and an inverting surfactant for the reduction of friction in subterranean treatment. water; from 100 to 500,000 ppm of total dissolved solids; from 1.9 to 11.4 1 (0.5 to 3 gallons) of a water-in-oil emulsion per 3785 1 (1000 gallons) of the treatment solution, said water-in-oil emulsion comprising an oil phase (O) and an aqueous phase (A) at an O/A ratio of from 1:8 to 10:1, wherein the oil phase is a continuous phase comprising an inert hydrophobic liquid; wherein the aqueous phase is present as dispersed distinct particles in the oil phase and comprises water, a water soluble polymer, and surfactants; wherein the water soluble polymer comprises 20 to 80 weight percent of a non-ionic monomer, 0.5 to 30 weight percent of a carboxylic acid containing monomer, and 5 to 70 weight percent of a cationic monomer; and wherein the water soluble polymer comprises from 5 to 40 weight percent of the water-in-oil emulsion; and an inverting surfactant for the reduction of friction in subterranean treatment.
Water injection device of an internal combustion engine, comprising: - at least one first water injector for injecting water, - a first tank for storing water, - a second tank for storing water, - a first water line from the first tank to the water injector , - a second water line from the second tank to the first water line , and - exactly one single pump , which is arranged in the first water line , - wherein the single pump is designed as a double-acting pump which can convey in a first direction and in a second direction opposite to the first direction. - at least one first water injector for injecting water, - a first tank for storing water, - a second tank for storing water, - a first water line from the first tank to the water injector , - a second water line from the second tank to the first water line , and - exactly one single pump , which is arranged in the first water line , - wherein the single pump is designed as a double-acting pump which can convey in a first direction and in a second direction opposite to the first direction.
A method for communicating uplink control information, UCI, in low-latency communications, performed by a user equipment, UE, comprising: receiving one or more resource assignments from an access point to transmit over a first symbol and a second symbol that comprise a first transmission time interval, TTI, wherein a resource assignment of the one or more resource assignments includes, at least for the first symbol, an indication of one or more consecutive frequency resources in a system bandwidth based on a decimation factor; transmitting , in the first TTI, a reference signal over the first symbol and a data signal indicating UCI over the second symbol according to the one or more resource assignments and in multiple frequency resources that are interleaved in frequency between the UE and other UEs based on the decimation factor, wherein the decimation factor is determined based at least in part on a payload size of the UCI; and wherein the decimation factor indicates a division of the one or more consecutive frequency resources; determining to transmit data in a plurality of symbols of a second TTI based at least in part on the reference signal, wherein the determining is based at least in part on a pattern, the pattern being based on a downlink TTI location; and transmitting , in the second TTI, the data in the plurality of symbols of the second TTI without transmitting a reference signal in the second TTI. receiving one or more resource assignments from an access point to transmit over a first symbol and a second symbol that comprise a first transmission time interval, TTI, wherein a resource assignment of the one or more resource assignments includes, at least for the first symbol, an indication of one or more consecutive frequency resources in a system bandwidth based on a decimation factor; transmitting , in the first TTI, a reference signal over the first symbol and a data signal indicating UCI over the second symbol according to the one or more resource assignments and in multiple frequency resources that are interleaved in frequency between the UE and other UEs based on the decimation factor, wherein the decimation factor is determined based at least in part on a payload size of the UCI; and wherein the decimation factor indicates a division of the one or more consecutive frequency resources; determining to transmit data in a plurality of symbols of a second TTI based at least in part on the reference signal, wherein the determining is based at least in part on a pattern, the pattern being based on a downlink TTI location; and transmitting , in the second TTI, the data in the plurality of symbols of the second TTI without transmitting a reference signal in the second TTI.
An isolated mRNA sequence for polypeptide expression within a target organ, the sequence comprising: at least one coding sequence which codes for the polypeptide; at least a first untranslated region (UTR) sequence; at least three different micro-RNA (miRNA) binding site sequences wherein the at least three different miRNA binding site sequences are located within, immediately 5' to or immediately 3' to, the first UTR sequence; and wherein the at least three different miRNA binding site sequences allow for differential expression of the coding sequence in different cell types within the target organ; wherein the polypeptide comprises an oncolytic viral virulence factor. at least one coding sequence which codes for the polypeptide; at least a first untranslated region (UTR) sequence; at least three different micro-RNA (miRNA) binding site sequences wherein the at least three different miRNA binding site sequences are located within, immediately 5' to or immediately 3' to, the first UTR sequence; and wherein the at least three different miRNA binding site sequences allow for differential expression of the coding sequence in different cell types within the target organ; wherein the polypeptide comprises an oncolytic viral virulence factor. wherein the at least three different miRNA binding site sequences are located within, immediately 5' to or immediately 3' to, the first UTR sequence; and wherein the at least three different miRNA binding site sequences allow for differential expression of the coding sequence in different cell types within the target organ; wherein the polypeptide comprises an oncolytic viral virulence factor.
An antenna, comprising: first, second, third, and fourth columns of radiating elements ; first, second, third, and fourth ports and a sub-band feed network for a first sub-band (Fig. 6, 2600MHz Ports 3-6), each of the first to fourth ports for the first sub-band being coupled to a respective one of the first to fourth columns of radiating elements by the sub-band feed network for the first sub-band; and first and second ports and first and second sub-band feed networks for a second sub-band (Fig. 6, 1900MHz Ports 1-2), the first port for the second sub-band being coupled to both of the first and second columns of radiating elements by the first sub-band feed network for the second sub-band that includes at least one power divider and the second port for the second sub-band being coupled to both of the third and fourth columns of radiating elements by the second sub-band feed network for the second sub-band that includes at least one power divider , wherein the first and second columns of radiating elements form a first pair of columns of radiating elements and the third and fourth columns of radiating elements form a second pair of columns of radiating elements, and wherein the first pair of columns of radiating elements and the second pair of columns of radiating elements are arranged such that an aperture between the first pair of columns of radiating elements and the second pair of columns of radiating elements has a spacing of about 1 wavelength at a frequency within the second sub-band. first, second, third, and fourth columns of radiating elements ; first, second, third, and fourth ports and a sub-band feed network for a first sub-band (Fig. 6, 2600MHz Ports 3-6), each of the first to fourth ports for the first sub-band being coupled to a respective one of the first to fourth columns of radiating elements by the sub-band feed network for the first sub-band; and first and second ports and first and second sub-band feed networks for a second sub-band (Fig. 6, 1900MHz Ports 1-2), the first port for the second sub-band being coupled to both of the first and second columns of radiating elements by the first sub-band feed network for the second sub-band that includes at least one power divider and the second port for the second sub-band being coupled to both of the third and fourth columns of radiating elements by the second sub-band feed network for the second sub-band that includes at least one power divider , wherein the first and second columns of radiating elements form a first pair of columns of radiating elements and the third and fourth columns of radiating elements form a second pair of columns of radiating elements, and wherein the first pair of columns of radiating elements and the second pair of columns of radiating elements are arranged such that an aperture between the first pair of columns of radiating elements and the second pair of columns of radiating elements has a spacing of about 1 wavelength at a frequency within the second sub-band.
A washing machine comprising a body ; a tub which is disposed in the body and wherein the washing process is performed; a circulation line wherein the water taken from the tub is circulated by means of a circulation pump ; and a filtering member having at least one filter which filters the circulation water taken from the circulation line , a receptacle wherein the filter is disposed, a water inlet through which the water coming from the circulation line is taken, and a water outlet which is arranged on the receptacle and which enables the water passing through the filter to be discharged out of the receptacle , wherein an overflow outlet which is arranged on the receptacle so as to be positioned before the water outlet in the flow direction of the water and which enables some of the water in the receptacle to be discharged out of the receptacle ; a compartment wherein the water coming through the overflow outlet fills; a level sensor which detects the level of the water in the compartment ; and a control unit which determines the fullness status of the filter , characterized in that the control unit determines the fullness status of the filter by calculating a filling rate related to the change of the level of the water in the compartment with respect to time by means of the data received from the level sensor .
An isolated antibody, or antigen-binding fragment thereof, that specifically binds to hypusine in a polypeptide, wherein the antibody comprises a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO:13, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO:17; and wherein the light chain variable region comprises (i) HVR-L1 comprising the amino acid sequence of SEQ ID NO:1, (ii) HVR-L2 comprising the amino acid sequence of SEQ ID NO:4, and (iii) HVR-L3 comprising the amino acid sequence of SEQ ID NO:7; or wherein the heavy chain variable region comprises (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO:9, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO:14, and (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 17; and wherein the light chain variable region comprises (i) HVR-L1 comprising the amino acid sequence of SEQ ID NO:2, (ii) HVR-L2 comprising the amino acid sequence of SEQ ID NO:5, and (iii) HVR-L3 comprising the amino acid sequence of SEQ ID NO:7.
An encrypted-data processing method comprising: generating a first code (15a, r) from first data (14a, w) by using a second error correction encoding method and generating a second code from the first code (15a, r) and a first random number (16a, s*) by using a first error correction encoding method , wherein a Hamming distance of the first random number (16a, s*) does not exceed error correction capability of the second error correction encoding method ; generating first masked data by masking registration target data (14b, x) by using the second code and registering the first masked data in a database ; generating a third code from a second random number (16b, s) by using the first error correction encoding method , wherein a Hamming distance of the second random number (16b, s) does not exceed the error correction capability; generating second masked data by masking matching target data (14c, y) by using the third code ; and generating synthesized data (17c, T) by synthesizing the second masked data and the first masked data registered in the database and decoding the synthesized data (17c, T) in accordance with the first error correction encoding method and the second error correction encoding method . generating a first code (15a, r) from first data (14a, w) by using a second error correction encoding method and generating a second code from the first code (15a, r) and a first random number (16a, s*) by using a first error correction encoding method , wherein a Hamming distance of the first random number (16a, s*) does not exceed error correction capability of the second error correction encoding method ; generating first masked data by masking registration target data (14b, x) by using the second code and registering the first masked data in a database ; generating a third code from a second random number (16b, s) by using the first error correction encoding method , wherein a Hamming distance of the second random number (16b, s) does not exceed the error correction capability; generating second masked data by masking matching target data (14c, y) by using the third code ; and generating synthesized data (17c, T) by synthesizing the second masked data and the first masked data registered in the database and decoding the synthesized data (17c, T) in accordance with the first error correction encoding method and the second error correction encoding method .
Use of lithium silicate-low quartz glass ceramic, which comprises 2.0 to 3.5 wt.-% K 2 O and comprises SiO 2 and Li 2 O in a molar ratio in the range of 2.2 to 3.5 and comprises lithium silicate as main crystal phase and low quartz as further crystal phase, as dental material, with the exception of glass ceramic having the following composition Component wt.-% SiO 2 65.7 Li 2 O 13.3 CaO 4.0 MgO 2.9 K 2 O 3.2 Al 2 O 3 3.2 P 2 O 5 7.7, which comprises lithium disilicate as main crystal phase and CaMgSi 2 O 6 , low quartz and Li 3 PO 4 as further crystal phases and is prepared by melting a starting glass in a platinum crucible at 1500°C for a period of 120 min, producing a glass frit by pouring the melted starting glass into water, grinding the glass frit with a vibrating mill and a zirconia vibrating mill to an average particle size of <90 μm, based on the number of particles, and uniaxially pressing the ground glass powder into a small cylinder and crystallizing and sintering in a furnace at 840°C for 5 min. with the exception of glass ceramic having the following composition Component wt.-% SiO 2 65.7 Li 2 O 13.3 CaO 4.0 MgO 2.9 K 2 O 3.2 Al 2 O 3 3.2 P 2 O 5 7.7, which comprises lithium disilicate as main crystal phase and CaMgSi 2 O 6 , low quartz and Li 3 PO 4 as further crystal phases and is prepared by melting a starting glass in a platinum crucible at 1500°C for a period of 120 min, producing a glass frit by pouring the melted starting glass into water, grinding the glass frit with a vibrating mill and a zirconia vibrating mill to an average particle size of <90 μm, based on the number of particles, and uniaxially pressing the ground glass powder into a small cylinder and crystallizing and sintering in a furnace at 840°C for 5 min.